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0001 FN ISI Export Format
0002 VR 1.0
0003 PT J
0004 AU [Anon]
0005 TI DARPA dreaming
0006 SO NATURE
0007 LA English
0008 DT Editorial Material
0009 NR 0
0010 TC 0
0011 PU NATURE PUBLISHING GROUP
0012 PI LONDON
0013 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0014 SN 0028-0836
0015 J9 NATURE
0016 JI Nature
0017 PD NOV 10
0018 PY 2005
0019 VL 438
0020 IS 7065
0021 BP 129
0022 EP 129
0023 PG 1
0024 SC Multidisciplinary Sciences
0025 GA 982BV
0026 UT ISI:000233133500001
0027 ER
0028
0029 PT J
0030 AU [Anon]
0031 TI A less toxic solution
0032 SO NATURE
0033 LA English
0034 DT Editorial Material
0035 NR 0
0036 TC 0
0037 PU NATURE PUBLISHING GROUP
0038 PI LONDON
0039 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0040 SN 0028-0836
0041 J9 NATURE
0042 JI Nature
0043 PD NOV 10
0044 PY 2005
0045 VL 438
0046 IS 7065
0047 BP 129
0048 EP 130
0049 PG 2
0050 SC Multidisciplinary Sciences
0051 GA 982BV
0052 UT ISI:000233133500002
0053 ER
0054
0055 PT J
0056 AU [Anon]
0057 TI Flu in circulation
0058 SO NATURE
0059 LA English
0060 DT Editorial Material
0061 NR 0
0062 TC 0
0063 PU NATURE PUBLISHING GROUP
0064 PI LONDON
0065 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0066 SN 0028-0836
0067 J9 NATURE
0068 JI Nature
0069 PD NOV 10
0070 PY 2005
0071 VL 438
0072 IS 7065
0073 BP 130
0074 EP 130
0075 PG 1
0076 SC Multidisciplinary Sciences
0077 GA 982BV
0078 UT ISI:000233133500003
0079 ER
0080
0081 PT J
0082 AU von Bubnoff, A
0083 TI Deadly flu virus can be sent through the mail
0084 SO NATURE
0085 LA English
0086 DT News Item
0087 NR 3
0088 TC 0
0089 PU NATURE PUBLISHING GROUP
0090 PI LONDON
0091 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0092 SN 0028-0836
0093 J9 NATURE
0094 JI Nature
0095 PD NOV 10
0096 PY 2005
0097 VL 438
0098 IS 7065
0099 BP 134
0100 EP 135
0101 PG 2
0102 SC Multidisciplinary Sciences
0103 GA 982BV
0104 UT ISI:000233133500004
0105 ER
0106
0107 PT J
0108 AU von Bubnoff, A
0109 TI How bad would it be if the virus escaped?
0110 SO NATURE
0111 LA English
0112 DT News Item
0113 NR 0
0114 TC 0
0115 PU NATURE PUBLISHING GROUP
0116 PI LONDON
0117 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0118 SN 0028-0836
0119 J9 NATURE
0120 JI Nature
0121 PD NOV 10
0122 PY 2005
0123 VL 438
0124 IS 7065
0125 BP 134
0126 EP 134
0127 PG 1
0128 SC Multidisciplinary Sciences
0129 GA 982BV
0130 UT ISI:000233133500005
0131 ER
0132
0133 PT J
0134 AU Cyranoski, D
0135 TI Far East lays plans to be stem-cell hotspot
0136 SO NATURE
0137 LA English
0138 DT News Item
0139 NR 2
0140 TC 0
0141 PU NATURE PUBLISHING GROUP
0142 PI LONDON
0143 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0144 SN 0028-0836
0145 J9 NATURE
0146 JI Nature
0147 PD NOV 10
0148 PY 2005
0149 VL 438
0150 IS 7065
0151 BP 135
0152 EP 135
0153 PG 1
0154 SC Multidisciplinary Sciences
0155 GA 982BV
0156 UT ISI:000233133500006
0157 ER
0158
0159 PT J
0160 AU Giles, J
0161 TI Researchers break the rules in frustration at review boards
0162 SO NATURE
0163 LA English
0164 DT News Item
0165 NR 2
0166 TC 0
0167 PU NATURE PUBLISHING GROUP
0168 PI LONDON
0169 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0170 SN 0028-0836
0171 J9 NATURE
0172 JI Nature
0173 PD NOV 10
0174 PY 2005
0175 VL 438
0176 IS 7065
0177 BP 136
0178 EP 137
0179 PG 2
0180 SC Multidisciplinary Sciences
0181 GA 982BV
0182 UT ISI:000233133500007
0183 ER
0184
0185 PT J
0186 AU Brumfiel, G
0187 TI Boeing strike leaves satellites stranded on launch pad
0188 SO NATURE
0189 LA English
0190 DT News Item
0191 NR 1
0192 TC 0
0193 PU NATURE PUBLISHING GROUP
0194 PI LONDON
0195 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0196 SN 0028-0836
0197 J9 NATURE
0198 JI Nature
0199 PD NOV 10
0200 PY 2005
0201 VL 438
0202 IS 7065
0203 BP 137
0204 EP 137
0205 PG 1
0206 SC Multidisciplinary Sciences
0207 GA 982BV
0208 UT ISI:000233133500008
0209 ER
0210
0211 PT J
0212 AU Ball, P
0213 TI Antigravity craft slips past patent officers
0214 SO NATURE
0215 LA English
0216 DT News Item
0217 NR 0
0218 TC 0
0219 PU NATURE PUBLISHING GROUP
0220 PI LONDON
0221 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0222 SN 0028-0836
0223 J9 NATURE
0224 JI Nature
0225 PD NOV 10
0226 PY 2005
0227 VL 438
0228 IS 7065
0229 BP 139
0230 EP 139
0231 PG 1
0232 SC Multidisciplinary Sciences
0233 GA 982BV
0234 UT ISI:000233133500009
0235 ER
0236
0237 PT J
0238 AU Brumfiel, G
0239 TI Bush buries US bunker-buster project
0240 SO NATURE
0241 LA English
0242 DT News Item
0243 NR 2
0244 TC 0
0245 PU NATURE PUBLISHING GROUP
0246 PI LONDON
0247 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0248 SN 0028-0836
0249 J9 NATURE
0250 JI Nature
0251 PD NOV 10
0252 PY 2005
0253 VL 438
0254 IS 7065
0255 BP 139
0256 EP 139
0257 PG 1
0258 SC Multidisciplinary Sciences
0259 GA 982BV
0260 UT ISI:000233133500010
0261 ER
0262
0263 PT J
0264 AU Dalton, R
0265 TI Congress attacked over species bill
0266 SO NATURE
0267 LA English
0268 DT News Item
0269 NR 1
0270 TC 0
0271 PU NATURE PUBLISHING GROUP
0272 PI LONDON
0273 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0274 SN 0028-0836
0275 J9 NATURE
0276 JI Nature
0277 PD NOV 10
0278 PY 2005
0279 VL 438
0280 IS 7065
0281 BP 140
0282 EP 141
0283 PG 2
0284 SC Multidisciplinary Sciences
0285 GA 982BV
0286 UT ISI:000233133500011
0287 ER
0288
0289 PT J
0290 AU Abbott, A
0291 TI More than a cosmetic change
0292 SO NATURE
0293 LA English
0294 DT News Item
0295 ID EYE
0296 NR 4
0297 TC 0
0298 PU NATURE PUBLISHING GROUP
0299 PI LONDON
0300 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0301 SN 0028-0836
0302 J9 NATURE
0303 JI Nature
0304 PD NOV 10
0305 PY 2005
0306 VL 438
0307 IS 7065
0308 BP 144
0309 EP 146
0310 PG 3
0311 SC Multidisciplinary Sciences
0312 GA 982BV
0313 UT ISI:000233133500012
0314 ER
0315
0316 PT J
0317 AU [Anon]
0318 TI The validation game
0319 SO NATURE
0320 LA English
0321 DT News Item
0322 NR 0
0323 TC 0
0324 PU NATURE PUBLISHING GROUP
0325 PI LONDON
0326 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0327 SN 0028-0836
0328 J9 NATURE
0329 JI Nature
0330 PD NOV 10
0331 PY 2005
0332 VL 438
0333 IS 7065
0334 BP 146
0335 EP 146
0336 PG 1
0337 SC Multidisciplinary Sciences
0338 GA 982BV
0339 UT ISI:000233133500013
0340 ER
0341
0342 PT J
0343 AU Ebert, J
0344 TI Tongue tied
0345 SO NATURE
0346 LA English
0347 DT News Item
0348 NR 3
0349 TC 0
0350 PU NATURE PUBLISHING GROUP
0351 PI LONDON
0352 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0353 SN 0028-0836
0354 J9 NATURE
0355 JI Nature
0356 PD NOV 10
0357 PY 2005
0358 VL 438
0359 IS 7065
0360 BP 148
0361 EP 149
0362 PG 2
0363 SC Multidisciplinary Sciences
0364 GA 982BV
0365 UT ISI:000233133500014
0366 ER
0367
0368 PT J
0369 AU Dennis, C
0370 TI All in the mind of a mouse
0371 SO NATURE
0372 LA English
0373 DT News Item
0374 ID MICE; BEHAVIOR
0375 NR 7
0376 TC 0
0377 PU NATURE PUBLISHING GROUP
0378 PI LONDON
0379 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0380 SN 0028-0836
0381 J9 NATURE
0382 JI Nature
0383 PD NOV 10
0384 PY 2005
0385 VL 438
0386 IS 7065
0387 BP 151
0388 EP 152
0389 PG 2
0390 SC Multidisciplinary Sciences
0391 GA 982BV
0392 UT ISI:000233133500015
0393 ER
0394
0395 PT J
0396 AU Wadman, M
0397 TI Path to approval proves rocky for copycat biodrugs
0398 SO NATURE
0399 LA English
0400 DT News Item
0401 NR 0
0402 TC 0
0403 PU NATURE PUBLISHING GROUP
0404 PI LONDON
0405 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0406 SN 0028-0836
0407 J9 NATURE
0408 JI Nature
0409 PD NOV 10
0410 PY 2005
0411 VL 438
0412 IS 7065
0413 BP 154
0414 EP 155
0415 PG 2
0416 SC Multidisciplinary Sciences
0417 GA 982BV
0418 UT ISI:000233133500016
0419 ER
0420
0421 PT J
0422 AU Macilwain, C
0423 TI Market watch - Nanotechnology stocks
0424 SO NATURE
0425 LA English
0426 DT News Item
0427 NR 0
0428 TC 0
0429 PU NATURE PUBLISHING GROUP
0430 PI LONDON
0431 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0432 SN 0028-0836
0433 J9 NATURE
0434 JI Nature
0435 PD NOV 10
0436 PY 2005
0437 VL 438
0438 IS 7065
0439 BP 155
0440 EP 155
0441 PG 1
0442 SC Multidisciplinary Sciences
0443 GA 982BV
0444 UT ISI:000233133500017
0445 ER
0446
0447 PT J
0448 AU Ibisch, PL
0449 Jennings, MD
0450 Kreft, S
0451 TI Biodiversity needs the help of global change managers, not
0452 museum-keepers
0453 SO NATURE
0454 LA English
0455 DT Letter
0456 C1 Univ Appl Sci Eberswalde, D-16225 Eberswalde, Germany.
0457 Nature Conservancy, Global Conservat Approach Team, Moscow, ID 83843 USA.
0458 RP Ibisch, PL, Univ Appl Sci Eberswalde, Alfred Moller Str 1, D-16225
0459 Eberswalde, Germany.
0460 NR 2
0461 TC 0
0462 PU NATURE PUBLISHING GROUP
0463 PI LONDON
0464 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0465 SN 0028-0836
0466 J9 NATURE
0467 JI Nature
0468 PD NOV 10
0469 PY 2005
0470 VL 438
0471 IS 7065
0472 BP 156
0473 EP 156
0474 PG 1
0475 SC Multidisciplinary Sciences
0476 GA 982BV
0477 UT ISI:000233133500018
0478 ER
0479
0480 PT J
0481 AU Gerlach, J
0482 TI Biodiversity: journals must take a broader view
0483 SO NATURE
0484 LA English
0485 DT Letter
0486 C1 Univ Museum Zool, Nat Protect Trust Seychelles, Cambridge CB2 3EJ, England.
0487 RP Gerlach, J, Univ Museum Zool, Nat Protect Trust Seychelles, Downing St,
0488 Cambridge CB2 3EJ, England.
0489 NR 1
0490 TC 0
0491 PU NATURE PUBLISHING GROUP
0492 PI LONDON
0493 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0494 SN 0028-0836
0495 J9 NATURE
0496 JI Nature
0497 PD NOV 10
0498 PY 2005
0499 VL 438
0500 IS 7065
0501 BP 156
0502 EP 156
0503 PG 1
0504 SC Multidisciplinary Sciences
0505 GA 982BV
0506 UT ISI:000233133500019
0507 ER
0508
0509 PT J
0510 AU Hartt, L
0511 TI Biodiversity: saving Florida panther makes sense
0512 SO NATURE
0513 LA English
0514 DT Letter
0515 C1 Natl Wildlife Federat, Atlanta, GA 30309 USA.
0516 RP Hartt, L, Natl Wildlife Federat, 1330 W Peachtree St,Suite 475,
0517 Atlanta, GA 30309 USA.
0518 NR 1
0519 TC 0
0520 PU NATURE PUBLISHING GROUP
0521 PI LONDON
0522 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0523 SN 0028-0836
0524 J9 NATURE
0525 JI Nature
0526 PD NOV 10
0527 PY 2005
0528 VL 438
0529 IS 7065
0530 BP 156
0531 EP 156
0532 PG 1
0533 SC Multidisciplinary Sciences
0534 GA 982BV
0535 UT ISI:000233133500020
0536 ER
0537
0538 PT J
0539 AU Hoffmann, G
0540 TI Thin ice: Unlocking the secrets of climate in the world's highest
0541 mountains
0542 SO NATURE
0543 LA English
0544 DT Book Review
0545 C1 CEA, LSCE, F-91191 Gif Sur Yvette, France.
0546 RP Hoffmann, G, CEA, LSCE, F-91191 Gif Sur Yvette, France.
0547 NR 1
0548 TC 0
0549 PU NATURE PUBLISHING GROUP
0550 PI LONDON
0551 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0552 SN 0028-0836
0553 J9 NATURE
0554 JI Nature
0555 PD NOV 10
0556 PY 2005
0557 VL 438
0558 IS 7065
0559 BP 157
0560 EP 157
0561 PG 1
0562 SC Multidisciplinary Sciences
0563 GA 982BV
0564 UT ISI:000233133500021
0565 ER
0566
0567 PT J
0568 AU Hughes, DW
0569 TI Fatal attraction: Magnetic mysteries and the enlightenment
0570 SO NATURE
0571 LA English
0572 DT Book Review
0573 C1 Univ Sheffield, Sheffield S3 7RH, S Yorkshire, England.
0574 RP Hughes, DW, Univ Sheffield, Sheffield S3 7RH, S Yorkshire, England.
0575 NR 1
0576 TC 0
0577 PU NATURE PUBLISHING GROUP
0578 PI LONDON
0579 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0580 SN 0028-0836
0581 J9 NATURE
0582 JI Nature
0583 PD NOV 10
0584 PY 2005
0585 VL 438
0586 IS 7065
0587 BP 158
0588 EP 158
0589 PG 1
0590 SC Multidisciplinary Sciences
0591 GA 982BV
0592 UT ISI:000233133500022
0593 ER
0594
0595 PT J
0596 AU Cornwell, J
0597 TI Between genius and genocide: The tragedy of Fritz Haber, father of
0598 chemical warfare
0599 SO NATURE
0600 LA English
0601 DT Book Review
0602 C1 Jesus Coll, Sci & Human Dimens Project, Cambridge, England.
0603 RP Cornwell, J, Jesus Coll, Sci & Human Dimens Project, Cambridge, England.
0604 NR 1
0605 TC 0
0606 PU NATURE PUBLISHING GROUP
0607 PI LONDON
0608 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0609 SN 0028-0836
0610 J9 NATURE
0611 JI Nature
0612 PD NOV 10
0613 PY 2005
0614 VL 438
0615 IS 7065
0616 BP 158
0617 EP 159
0618 PG 2
0619 SC Multidisciplinary Sciences
0620 GA 982BV
0621 UT ISI:000233133500023
0622 ER
0623
0624 PT J
0625 AU Al-Khalili, J
0626 TI A briefer history of time
0627 SO NATURE
0628 LA English
0629 DT Book Review
0630 C1 Univ Surrey, Dept Phys, Surrey GU2 7XH, England.
0631 RP Al-Khalili, J, Univ Surrey, Dept Phys, Surrey GU2 7XH, England.
0632 NR 1
0633 TC 0
0634 PU NATURE PUBLISHING GROUP
0635 PI LONDON
0636 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0637 SN 0028-0836
0638 J9 NATURE
0639 JI Nature
0640 PD NOV 10
0641 PY 2005
0642 VL 438
0643 IS 7065
0644 BP 159
0645 EP +
0646 PG 2
0647 SC Multidisciplinary Sciences
0648 GA 982BV
0649 UT ISI:000233133500024
0650 ER
0651
0652 PT J
0653 AU Kevles, DJ
0654 TI Victory and vexation in science: Einstein, Bohr, Heisenberg and others
0655 SO NATURE
0656 LA English
0657 DT Book Review
0658 C1 Yale Univ, Dept Hist, New Haven, CT 06520 USA.
0659 RP Kevles, DJ, Yale Univ, Dept Hist, New Haven, CT 06520 USA.
0660 NR 1
0661 TC 0
0662 PU NATURE PUBLISHING GROUP
0663 PI LONDON
0664 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0665 SN 0028-0836
0666 J9 NATURE
0667 JI Nature
0668 PD NOV 10
0669 PY 2005
0670 VL 438
0671 IS 7065
0672 BP 161
0673 EP 162
0674 PG 2
0675 SC Multidisciplinary Sciences
0676 GA 982BV
0677 UT ISI:000233133500025
0678 ER
0679
0680 PT J
0681 AU Lythgoe, M
0682 TI The creating brain: The neuroscience of genius
0683 SO NATURE
0684 LA English
0685 DT Book Review
0686 C1 Inst Child Hlth, Radiol & Phys Unit, London WC1N 1EH, England.
0687 RP Lythgoe, M, Inst Child Hlth, Radiol & Phys Unit, 30 Guilford St, London
0688 WC1N 1EH, England.
0689 NR 1
0690 TC 0
0691 PU NATURE PUBLISHING GROUP
0692 PI LONDON
0693 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0694 SN 0028-0836
0695 J9 NATURE
0696 JI Nature
0697 PD NOV 10
0698 PY 2005
0699 VL 438
0700 IS 7065
0701 BP 162
0702 EP 163
0703 PG 2
0704 SC Multidisciplinary Sciences
0705 GA 982BV
0706 UT ISI:000233133500026
0707 ER
0708
0709 PT J
0710 AU Clack, J
0711 TI Discovering Dorothea: The life of the pioneering fossil-hunter Dorothea
0712 Bate
0713 SO NATURE
0714 LA English
0715 DT Book Review
0716 C1 Univ Museum Zool, Cambridge CB2 3EJ, England.
0717 RP Clack, J, Univ Museum Zool, Downing St, Cambridge CB2 3EJ, England.
0718 NR 1
0719 TC 0
0720 PU NATURE PUBLISHING GROUP
0721 PI LONDON
0722 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0723 SN 0028-0836
0724 J9 NATURE
0725 JI Nature
0726 PD NOV 10
0727 PY 2005
0728 VL 438
0729 IS 7065
0730 BP 163
0731 EP +
0732 PG 2
0733 SC Multidisciplinary Sciences
0734 GA 982BV
0735 UT ISI:000233133500027
0736 ER
0737
0738 PT J
0739 AU Charlson, RJ
0740 TI Plows, plagues and petroleum: How humans took control of climate
0741 SO NATURE
0742 LA English
0743 DT Book Review
0744 C1 Univ Washington, Dept Atmospher Sci, Seattle, WA 98125 USA.
0745 Univ Washington, Dept Chem, Seattle, WA 98125 USA.
0746 RP Charlson, RJ, Univ Washington, Dept Atmospher Sci, Seattle, WA 98125
0747 USA.
0748 NR 1
0749 TC 0
0750 PU NATURE PUBLISHING GROUP
0751 PI LONDON
0752 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0753 SN 0028-0836
0754 J9 NATURE
0755 JI Nature
0756 PD NOV 10
0757 PY 2005
0758 VL 438
0759 IS 7065
0760 BP 165
0761 EP 166
0762 PG 2
0763 SC Multidisciplinary Sciences
0764 GA 982BV
0765 UT ISI:000233133500028
0766 ER
0767
0768 PT J
0769 AU Alexander, RM
0770 TI The gecko's foot. Bio-inspiration: Engineered from nature
0771 SO NATURE
0772 LA English
0773 DT Book Review
0774 C1 Univ Leeds, Fac Biol Sci, Leeds LS2 9JT, W Yorkshire, England.
0775 RP Alexander, RM, Univ Leeds, Fac Biol Sci, Miall Bldg, Leeds LS2 9JT, W
0776 Yorkshire, England.
0777 NR 1
0778 TC 0
0779 PU NATURE PUBLISHING GROUP
0780 PI LONDON
0781 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0782 SN 0028-0836
0783 J9 NATURE
0784 JI Nature
0785 PD NOV 10
0786 PY 2005
0787 VL 438
0788 IS 7065
0789 BP 166
0790 EP 166
0791 PG 1
0792 SC Multidisciplinary Sciences
0793 GA 982BV
0794 UT ISI:000233133500029
0795 ER
0796
0797 PT J
0798 AU Czajkowski, C
0799 TI Neurobiology - Triggers for channel opening
0800 SO NATURE
0801 LA English
0802 DT Editorial Material
0803 ID ACETYLCHOLINE-RECEPTOR; LOOP
0804 C1 Univ Wisconsin, Dept Physiol, Madison, WI 53711 USA.
0805 RP Czajkowski, C, Univ Wisconsin, Dept Physiol, 601 Sci Dr, Madison, WI
0806 53711 USA.
0807 EM czajkowski@physiology.wisc.edu
0808 NR 12
0809 TC 0
0810 PU NATURE PUBLISHING GROUP
0811 PI LONDON
0812 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0813 SN 0028-0836
0814 J9 NATURE
0815 JI Nature
0816 PD NOV 10
0817 PY 2005
0818 VL 438
0819 IS 7065
0820 BP 167
0821 EP 168
0822 PG 2
0823 SC Multidisciplinary Sciences
0824 GA 982BV
0825 UT ISI:000233133500030
0826 ER
0827
0828 PT J
0829 AU Kane, CL
0830 TI Materials science - Erasing electron mass
0831 SO NATURE
0832 LA English
0833 DT Editorial Material
0834 C1 Univ Penn, Dept Phys & Astron, Philadelphia, PA 19104 USA.
0835 RP Kane, CL, Univ Penn, Dept Phys & Astron, 209 S 33rd St, Philadelphia,
0836 PA 19104 USA.
0837 EM kane@physics.upenn.edu
0838 NR 3
0839 TC 0
0840 PU NATURE PUBLISHING GROUP
0841 PI LONDON
0842 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0843 SN 0028-0836
0844 J9 NATURE
0845 JI Nature
0846 PD NOV 10
0847 PY 2005
0848 VL 438
0849 IS 7065
0850 BP 168
0851 EP +
0852 PG 2
0853 SC Multidisciplinary Sciences
0854 GA 982BV
0855 UT ISI:000233133500031
0856 ER
0857
0858 PT J
0859 AU Buckling, A
0860 Brockhurst, M
0861 TI Microbiology - RAMP resistance
0862 SO NATURE
0863 LA English
0864 DT Editorial Material
0865 ID PEPTIDE
0866 C1 Univ Oxford, Dept Zool, Oxford OX1 3PS, England.
0867 Univ Montpellier 2, ISEM, F-34095 Montpellier, France.
0868 RP Buckling, A, Univ Oxford, Dept Zool, S Parks Rd, Oxford OX1 3PS,
0869 England.
0870 EM angus.buckling@zoology.oxford.ac.uk
0871 NR 10
0872 TC 0
0873 PU NATURE PUBLISHING GROUP
0874 PI LONDON
0875 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0876 SN 0028-0836
0877 J9 NATURE
0878 JI Nature
0879 PD NOV 10
0880 PY 2005
0881 VL 438
0882 IS 7065
0883 BP 170
0884 EP 171
0885 PG 2
0886 SC Multidisciplinary Sciences
0887 GA 982BV
0888 UT ISI:000233133500032
0889 ER
0890
0891 PT J
0892 AU Abercrombie, R
0893 TI Seismology - The start of something big?
0894 SO NATURE
0895 LA English
0896 DT Editorial Material
0897 ID EARTHQUAKE
0898 C1 Boston Univ, Dept Earth & Planetary Sci, Boston, MA 02215 USA.
0899 RP Abercrombie, R, Boston Univ, Dept Earth & Planetary Sci, 685
0900 Commonwealth Ave, Boston, MA 02215 USA.
0901 EM rea@bu.edu
0902 NR 5
0903 TC 0
0904 PU NATURE PUBLISHING GROUP
0905 PI LONDON
0906 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0907 SN 0028-0836
0908 J9 NATURE
0909 JI Nature
0910 PD NOV 10
0911 PY 2005
0912 VL 438
0913 IS 7065
0914 BP 171
0915 EP +
0916 PG 2
0917 SC Multidisciplinary Sciences
0918 GA 982BV
0919 UT ISI:000233133500033
0920 ER
0921
0922 PT J
0923 AU Nitabach, MN
0924 TI Circadian rhythms - Clock coordination
0925 SO NATURE
0926 LA English
0927 DT Editorial Material
0928 ID DROSOPHILA; NEURONS
0929 C1 Yale Sch Med, Dept Cellular & Mol Physiol, Interdepartmental Neurosci Program, New Haven, CT 06520 USA.
0930 RP Nitabach, MN, Yale Sch Med, Dept Cellular & Mol Physiol,
0931 Interdepartmental Neurosci Program, New Haven, CT 06520 USA.
0932 EM michael.nitabach@yale.edu
0933 NR 9
0934 TC 0
0935 PU NATURE PUBLISHING GROUP
0936 PI LONDON
0937 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0938 SN 0028-0836
0939 J9 NATURE
0940 JI Nature
0941 PD NOV 10
0942 PY 2005
0943 VL 438
0944 IS 7065
0945 BP 173
0946 EP +
0947 PG 2
0948 SC Multidisciplinary Sciences
0949 GA 982BV
0950 UT ISI:000233133500034
0951 ER
0952
0953 PT J
0954 AU Lu, ET
0955 Love, SG
0956 TI Gravitational tractor for towing asteroids - A spacecraft could deflect
0957 an Earth-bound asteroid without having to dock to its surface first
0958 SO NATURE
0959 LA English
0960 DT Editorial Material
0961 C1 NASA, Lyndon B Johnson Space Ctr, Houston, TX 77058 USA.
0962 RP Lu, ET, NASA, Lyndon B Johnson Space Ctr, Mail Code CB, Houston, TX
0963 77058 USA.
0964 EM edward.t.lu@nasa.gov
0965 NR 5
0966 TC 0
0967 PU NATURE PUBLISHING GROUP
0968 PI LONDON
0969 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
0970 SN 0028-0836
0971 J9 NATURE
0972 JI Nature
0973 PD NOV 10
0974 PY 2005
0975 VL 438
0976 IS 7065
0977 BP 177
0978 EP 178
0979 PG 2
0980 SC Multidisciplinary Sciences
0981 GA 982BV
0982 UT ISI:000233133500035
0983 ER
0984
0985 PT J
0986 AU Toda, M
0987 Takagaki, A
0988 Okamura, M
0989 Kondo, JN
0990 Hayashi, S
0991 Domen, K
0992 Hara, M
0993 TI Green chemistry - Biodiesel made with sugar catalyst
0994 SO NATURE
0995 LA English
0996 DT Editorial Material
0997 ID SOLID ACID CATALYSTS
0998 C1 Tokyo Inst Technol, Chem Resources Lab, Yokohama, Kanagawa 2268503, Japan.
0999 Natl Inst Adv Ind Sci & Technol, Res Inst Instrumentat Frontier, Tsukuba, Ibaraki 3058565, Japan.
1000 Univ Tokyo, Sch Engn, Dept Chem Syst Engn, Bunkyo Ku, Tokyo 1138656, Japan.
1001 RP Toda, M, Tokyo Inst Technol, Chem Resources Lab, Yokohama, Kanagawa
1002 2268503, Japan.
1003 EM mhara@res.titech.ac.jp
1004 NR 8
1005 TC 0
1006 PU NATURE PUBLISHING GROUP
1007 PI LONDON
1008 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1009 SN 0028-0836
1010 J9 NATURE
1011 JI Nature
1012 PD NOV 10
1013 PY 2005
1014 VL 438
1015 IS 7065
1016 BP 178
1017 EP 178
1018 PG 1
1019 SC Multidisciplinary Sciences
1020 GA 982BV
1021 UT ISI:000233133500036
1022 ER
1023
1024 PT J
1025 AU Calford, MB
1026 Chino, YM
1027 Das, A
1028 Eysel, UT
1029 Gilbert, CD
1030 Heinen, SJ
1031 Kaas, JH
1032 Ullman, S
1033 TI Neuroscience - Rewiring the adult brain
1034 SO NATURE
1035 LA English
1036 DT Editorial Material
1037 ID PRIMARY VISUAL-CORTEX; CORTICAL REORGANIZATION; RETINAL LESIONS;
1038 FILLING-IN; PLASTICITY; CONNECTIONS; NEURONS
1039 C1 Univ Newcastle, Sch Biomed Sci, Newcastle, NSW 2308, Australia.
1040 Univ Houston, Coll Optometry, Houston, TX 77004 USA.
1041 Columbia Univ, Sch Med, New York, NY 10032 USA.
1042 Ruhr Univ Bochum, Fac Med, Dept Neurophysiol, D-44780 Bochum, Germany.
1043 Rockefeller Univ, New York, NY 10021 USA.
1044 Smith Kettlewell Eye Res Inst, San Francisco, CA 94115 USA.
1045 Vanderbilt Univ, Nashville, TN 37240 USA.
1046 RP Calford, MB, Univ Newcastle, Sch Biomed Sci, Newcastle, NSW 2308,
1047 Australia.
1048 NR 15
1049 TC 0
1050 PU NATURE PUBLISHING GROUP
1051 PI LONDON
1052 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1053 SN 0028-0836
1054 J9 NATURE
1055 JI Nature
1056 PD NOV 10
1057 PY 2005
1058 VL 438
1059 IS 7065
1060 BP E3
1061 EP E3
1062 PG 1
1063 SC Multidisciplinary Sciences
1064 GA 982BV
1065 UT ISI:000233133500037
1066 ER
1067
1068 PT J
1069 AU Smirnakis, SM
1070 Schmid, MC
1071 Brewer, AA
1072 Tolias, AS
1073 Schuz, A
1074 Augath, M
1075 Inhoffen, W
1076 Wandell, BA
1077 Logothetis, NK
1078 TI Neuroscience - Rewiring the adult brain - Reply
1079 SO NATURE
1080 LA English
1081 DT Editorial Material
1082 ID PERCEPTUAL FILLING-IN; PRIMARY VISUAL-CORTEX; CORTICAL REORGANIZATION;
1083 MACULAR DEGENERATION; MONKEY; SCOTOMA; LESIONS; FMRI
1084 C1 Stanford Univ, Program Neurosci, Stanford, CA 94305 USA.
1085 Stanford Univ, Dept Psychol, Stanford, CA 94305 USA.
1086 Max Planck Inst Biol Cybernet, D-72076 Tubingen, Germany.
1087 Massachusetts Gen Hosp, Dept Neurol, Boston, MA 02114 USA.
1088 Harvard Univ, Brigham & Womens Hosp, Boston, MA 02114 USA.
1089 Univ Tubingen, Dept Ophthalmol 1, D-72076 Tubingen, Germany.
1090 RP Smirnakis, SM, Stanford Univ, Program Neurosci, Stanford, CA 94305 USA.
1091 EM smsmirnakis@partners.org
1092 NR 15
1093 TC 0
1094 PU NATURE PUBLISHING GROUP
1095 PI LONDON
1096 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1097 SN 0028-0836
1098 J9 NATURE
1099 JI Nature
1100 PD NOV 10
1101 PY 2005
1102 VL 438
1103 IS 7065
1104 BP E3
1105 EP E4
1106 PG 2
1107 SC Multidisciplinary Sciences
1108 GA 982BV
1109 UT ISI:000233133500038
1110 ER
1111
1112 PT J
1113 AU Zhang, Y
1114 Lu, H
1115 Bargmann, CI
1116 TI Pathogenic bacteria induce aversive olfactory learning in
1117 Caenorhabditis elegans
1118 SO NATURE
1119 LA English
1120 DT Article
1121 ID C-ELEGANS; TRYPTOPHAN-HYDROXYLASE; SIGNALING PATHWAY; NEURONS; GENE;
1122 ADAPTATION; PLASTICITY; CHANNEL; MEMORY; FOOD
1123 AB Food can be hazardous, either through toxicity or through bacterial
1124 infections that follow the ingestion of a tainted food source. Because
1125 learning about food quality enhances survival, one of the most robust
1126 forms of olfactory learning is conditioned avoidance of tastes
1127 associated with visceral malaise. The nematode Caenorhabditis elegans
1128 feeds on bacteria but is susceptible to infection by pathogenic
1129 bacteria in its natural environment. Here we show that C. elegans
1130 modifies its olfactory preferences after exposure to pathogenic
1131 bacteria, avoiding odours from the pathogen and increasing its
1132 attraction to odours from familiar nonpathogenic bacteria. Particular
1133 bacteria elicit specific changes in olfactory preferences that are
1134 suggestive of associative learning. Exposure to pathogenic bacteria
1135 increases serotonin in ADF chemosensory neurons by transcriptional and
1136 post-transcriptional mechanisms. Serotonin functions through MOD-1, a
1137 serotonin-gated chloride channel expressed in sensory interneurons, to
1138 promote aversive learning. An increase in serotonin may represent the
1139 negative reinforcing stimulus in pathogenic infection.
1140 C1 Rockefeller Univ, Howard Hughes Med Inst, Lab Neural Circuits & Behav, New York, NY 10021 USA.
1141 RP Bargmann, CI, Rockefeller Univ, Howard Hughes Med Inst, Lab Neural
1142 Circuits & Behav, 1230 York Ave, New York, NY 10021 USA.
1143 EM cori@rockefeller.edu
1144 NR 32
1145 TC 0
1146 PU NATURE PUBLISHING GROUP
1147 PI LONDON
1148 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1149 SN 0028-0836
1150 J9 NATURE
1151 JI Nature
1152 PD NOV 10
1153 PY 2005
1154 VL 438
1155 IS 7065
1156 BP 179
1157 EP 184
1158 PG 6
1159 SC Multidisciplinary Sciences
1160 GA 982BV
1161 UT ISI:000233133500039
1162 ER
1163
1164 PT J
1165 AU Furukawa, H
1166 Singh, SK
1167 Mancusso, R
1168 Gouaux, E
1169 TI Subunit arrangement and function in NMDA receptors
1170 SO NATURE
1171 LA English
1172 DT Article
1173 ID D-ASPARTATE RECEPTORS; LIGAND-BINDING CORE; GLUTAMATE-RECEPTOR;
1174 CRYSTAL-STRUCTURES; MOLECULAR DETERMINANTS; CHANNEL KINETICS; AMPA
1175 RECEPTORS; ACTIVATION; KAINATE; MECHANISM
1176 AB Excitatory neurotransmission mediated by NMDA (N-methyl-D-aspartate)
1177 receptors is fundamental to the physiology of the mammalian central
1178 nervous system. These receptors are heteromeric ion channels that for
1179 activation require binding of glycine and glutamate to the NR1 and NR2
1180 subunits, respectively. NMDA receptor function is characterized by slow
1181 channel opening and deactivation, and the resulting influx of cations
1182 initiates signal transduction cascades that are crucial to higher
1183 functions including learning and memory. Here we report crystal
1184 structures of the ligand-binding core of NR2A with glutamate and that
1185 of the NR1 - NR2A heterodimer with glutamate and glycine. The NR2A -
1186 glutamate complex defines the determinants of glutamate and NMDA
1187 recognition, and the NR1 - NR2A heterodimer suggests a mechanism for
1188 ligand-induced ion channel opening. Analysis of the heterodimer
1189 interface, together with biochemical and electrophysiological
1190 experiments, confirms that the NR1 - NR2A heterodimer is the functional
1191 unit in tetrameric NMDA receptors and that tyrosine 535 of NR1, located
1192 in the subunit interface, modulates the rate of ion channel
1193 deactivation.
1194 C1 Columbia Univ, Dept Biochem & Mol Biophys, New York, NY 10032 USA.
1195 Columbia Univ, Howard Hughes Med Inst, New York, NY 10032 USA.
1196 RP Gouaux, E, Oregon Hlth & Sci Univ, Vollum Inst, Portland, OR 97239 USA.
1197 EM jeg52@columbia.edu
1198 NR 50
1199 TC 0
1200 PU NATURE PUBLISHING GROUP
1201 PI LONDON
1202 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1203 SN 0028-0836
1204 J9 NATURE
1205 JI Nature
1206 PD NOV 10
1207 PY 2005
1208 VL 438
1209 IS 7065
1210 BP 185
1211 EP 192
1212 PG 8
1213 SC Multidisciplinary Sciences
1214 GA 982BV
1215 UT ISI:000233133500040
1216 ER
1217
1218 PT J
1219 AU Heimpel, M
1220 Aurnou, J
1221 Wicht, J
1222 TI Simulation of equatorial and high-latitude jets on Jupiter in a deep
1223 convection model
1224 SO NATURE
1225 LA English
1226 DT Article
1227 ID ROTATING SPHERICAL-SHELL; GIANT OUTER PLANETS; ZONAL FLOW DRIVEN;
1228 ATMOSPHERIC DYNAMICS; THERMAL-CONVECTION; JOVIAN ATMOSPHERE; WINDS;
1229 TURBULENCE; CASSINI; GALILEO
1230 AB The bands of Jupiter represent a global system of powerful winds. Broad
1231 eastward equatorial jets are flanked by smaller-scale, higher-latitude
1232 jets flowing in alternating directions(1,2). Jupiter's large thermal
1233 emission suggests that the winds are powered from within(3,4), but the
1234 zonal flow depth is limited by increasing density and electrical
1235 conductivity in the molecular hydrogen - helium atmosphere towards the
1236 centre of the planet(5). Two types of planetary flow models have been
1237 explored: shallow-layer models reproduce multiple high-latitude jets,
1238 but not the equatorial flow system(6-8), and deep convection models
1239 only reproduce an eastward equatorial jet with two flanking
1240 neighbours(9-14). Here we present a numerical model of
1241 three-dimensional rotating convection in a relatively thin spherical
1242 shell that generates both types of jets. The simulated flow is
1243 turbulent and quasi-two-dimensional and, as observed for the jovian
1244 jets, simulated jet widths follow Rhines' scaling theory(2,12,13,15).
1245 Our findings imply that Jupiter's latitudinal transition in jet width
1246 corresponds to a separation between the bottom-bounded flow structures
1247 in higher latitudes and the deep equatorial flows.
1248 C1 Univ Alberta, Dept Phys, Edmonton, AB T6G 2J1, Canada.
1249 Univ Calif Los Angeles, Dept Earth & Space Sci, Los Angeles, CA 90095 USA.
1250 Max Planck Inst Solar Syst Res, D-37191 Katlenburg Lindau, Germany.
1251 RP Heimpel, M, Univ Alberta, Dept Phys, Edmonton, AB T6G 2J1, Canada.
1252 EM mheimpel@phys.ualberta.ca
1253 NR 30
1254 TC 0
1255 PU NATURE PUBLISHING GROUP
1256 PI LONDON
1257 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1258 SN 0028-0836
1259 J9 NATURE
1260 JI Nature
1261 PD NOV 10
1262 PY 2005
1263 VL 438
1264 IS 7065
1265 BP 193
1266 EP 196
1267 PG 4
1268 SC Multidisciplinary Sciences
1269 GA 982BV
1270 UT ISI:000233133500041
1271 ER
1272
1273 PT J
1274 AU Novoselov, KS
1275 Geim, AK
1276 Morozov, SV
1277 Jiang, D
1278 Katsnelson, MI
1279 Grigorieva, IV
1280 Dubonos, SV
1281 Firsov, AA
1282 TI Two-dimensional gas of massless Dirac fermions in graphene
1283 SO NATURE
1284 LA English
1285 DT Article
1286 ID GRAPHITE; STATES
1287 AB Quantum electrodynamics ( resulting from the merger of quantum
1288 mechanics and relativity theory) has provided a clear understanding of
1289 phenomena ranging from particle physics to cosmology and from
1290 astrophysics to quantum chemistry(1-3). The ideas underlying quantum
1291 electrodynamics also influence the theory of condensed matter(4,5), but
1292 quantum relativistic effects are usually minute in the known
1293 experimental systems that can be described accurately by the
1294 non-relativistic Schrodinger equation. Here we report an experimental
1295 study of a condensed-matter system (graphene, a single atomic layer of
1296 carbon(6,7)) in which electron transport is essentially governed by
1297 Dirac's ( relativistic) equation. The charge carriers in graphene mimic
1298 relativistic particles with zero rest mass and have an effective 'speed
1299 of light' c* approximate to 10(6) m s(-1). Our study reveals a variety
1300 of unusual phenomena that are characteristic of two-dimensional Dirac
1301 fermions. In particular we have observed the following: first,
1302 graphene's conductivity never falls below a minimum value corresponding
1303 to the quantum unit of conductance, even when concentrations of charge
1304 carriers tend to zero; second, the integer quantum Hall effect in
1305 graphene is anomalous in that it occurs at half-integer filling
1306 factors; and third, the cyclotron mass m(c) of massless carriers in
1307 graphene is described by E = m(c)c(*)(2). This two-dimensional system
1308 is not only interesting in itself but also allows access to the subtle
1309 and rich physics of quantum electrodynamics in a bench-top experiment.
1310 C1 Univ Manchester, Manchester Ctr Mesosci & Nanotechnol, Manchester M13 9PL, Lancs, England.
1311 Russian Acad Sci, Inst Microelect Technol, Chernogolovka 142432, Russia.
1312 Radboud Univ Nijmegen, Inst Mol & Mat, NL-6525 ED Nijmegen, Netherlands.
1313 RP Geim, AK, Univ Manchester, Manchester Ctr Mesosci & Nanotechnol,
1314 Manchester M13 9PL, Lancs, England.
1315 EM kostya@man.ac.uk
1316 geim@man.ac.uk
1317 NR 28
1318 TC 1
1319 PU NATURE PUBLISHING GROUP
1320 PI LONDON
1321 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1322 SN 0028-0836
1323 J9 NATURE
1324 JI Nature
1325 PD NOV 10
1326 PY 2005
1327 VL 438
1328 IS 7065
1329 BP 197
1330 EP 200
1331 PG 4
1332 SC Multidisciplinary Sciences
1333 GA 982BV
1334 UT ISI:000233133500042
1335 ER
1336
1337 PT J
1338 AU Zhang, YB
1339 Tan, YW
1340 Stormer, HL
1341 Kim, P
1342 TI Experimental observation of the quantum Hall effect and Berry's phase
1343 in graphene
1344 SO NATURE
1345 LA English
1346 DT Article
1347 ID CARBON NANOTUBES; GRAPHITE
1348 AB When electrons are confined in two-dimensional materials,
1349 quantum-mechanically enhanced transport phenomena such as the quantum
1350 Hall effect can be observed. Graphene, consisting of an isolated single
1351 atomic layer of graphite, is an ideal realization of such a
1352 two-dimensional system. However, its behaviour is expected to differ
1353 markedly from the well-studied case of quantum wells in conventional
1354 semiconductor interfaces. This difference arises from the unique
1355 electronic properties of graphene, which exhibits electron - hole
1356 degeneracy and vanishing carrier mass near the point of charge
1357 neutrality(1,2). Indeed, a distinctive half-integer quantum Hall effect
1358 has been predicted(3-5) theoretically, as has the existence of a
1359 non-zero Berry's phase ( a geometric quantum phase) of the electron
1360 wavefunction - a consequence of the exceptional topology of the
1361 graphene band structure(6,7). Recent advances in micromechanical
1362 extraction and fabrication techniques for graphite structures(8-12) now
1363 permit such exotic two-dimensional electron systems to be probed
1364 experimentally. Here we report an experimental investigation of
1365 magneto-transport in a high-mobility single layer of graphene.
1366 Adjusting the chemical potential with the use of the electric field
1367 effect, we observe an unusual half-integer quantum Hall effect for both
1368 electron and hole carriers in graphene. The relevance of Berry's phase
1369 to these experiments is confirmed by magneto-oscillations. In addition
1370 to their purely scientific interest, these unusual quantum transport
1371 phenomena may lead to new applications in carbon-based electronic and
1372 magneto-electronic devices.
1373 C1 Columbia Univ, Dept Phys, New York, NY 10027 USA.
1374 Columbia Univ, Dept Appl Phys & Appl Math, New York, NY 10027 USA.
1375 RP Kim, P, Columbia Univ, Dept Phys, 538 W 120th St, New York, NY 10027
1376 USA.
1377 EM pkim@phys.columbia.edu
1378 NR 20
1379 TC 1
1380 PU NATURE PUBLISHING GROUP
1381 PI LONDON
1382 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1383 SN 0028-0836
1384 J9 NATURE
1385 JI Nature
1386 PD NOV 10
1387 PY 2005
1388 VL 438
1389 IS 7065
1390 BP 201
1391 EP 204
1392 PG 4
1393 SC Multidisciplinary Sciences
1394 GA 982BV
1395 UT ISI:000233133500043
1396 ER
1397
1398 PT J
1399 AU Yamamoto, JK
1400 Fairchild, TR
1401 Boggiani, PC
1402 Montanheiro, TJ
1403 de Araujo, CC
1404 Kiyohara, PK
1405 de Matos, SLF
1406 Soares, PC
1407 TI A record of Permian subaqueous vent activity in southeastern Brazil
1408 SO NATURE
1409 LA English
1410 DT Article
1411 AB The remarkable occurrence of more than 4,500 conical siliceous mounds
1412 in an area of less than 1.5 square kilometres has been reported in the
1413 Parana basin, near Anhembi, Sao Paulo, in southeastern Brazil(1). These
1414 structures, which are up to two metres high, are thought to have been
1415 formed at the margin of a very shallow, broad but waning internal
1416 sea(1), and it was originally suggested that they are stromatolites(2).
1417 Yet their restricted occurrence, unusual abundance and nearly pure
1418 siliceous composition have never been satisfactorily explained by this
1419 hypothesis. Here we report field and laboratory observations on their
1420 shape, construction, composition and mineralogy. On the basis of our
1421 data we suggest that the conical mounds are the result of subaqueous
1422 Late Permian vent activity in southwestern Gondwana. The present
1423 siliceous cone field differs considerably from other Palaeozoic
1424 siliceous hot spring deposits, such as those at Rhynie, Scotland(3),
1425 and the Drummond basin, Australia(4), and therefore represents an
1426 unusual occurrence of vent activity.
1427 C1 Univ Sao Paulo, Inst Geosci, BR-05508080 Sao Paulo, Brazil.
1428 State Secretary Environm, Inst Geol, BR-04301903 Sao Paulo, Brazil.
1429 PETROBRAS SA, BR-20031912 Rio De Janeiro, Brazil.
1430 Univ Sao Paulo, Inst Phys, BR-05508900 Sao Paulo, Brazil.
1431 Univ Fed Parana, Dept Geol, BR-81531990 Curitiba, Parana, Brazil.
1432 RP Yamamoto, JK, Univ Sao Paulo, Inst Geosci, Rua Lago 562, BR-05508080
1433 Sao Paulo, Brazil.
1434 EM jkyamamo@usp.br
1435 NR 16
1436 TC 0
1437 PU NATURE PUBLISHING GROUP
1438 PI LONDON
1439 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1440 SN 0028-0836
1441 J9 NATURE
1442 JI Nature
1443 PD NOV 10
1444 PY 2005
1445 VL 438
1446 IS 7065
1447 BP 205
1448 EP 207
1449 PG 3
1450 SC Multidisciplinary Sciences
1451 GA 982BV
1452 UT ISI:000233133500044
1453 ER
1454
1455 PT J
1456 AU Braun, H
1457 Christl, M
1458 Rahmstorf, S
1459 Ganopolski, A
1460 Mangini, A
1461 Kubatzki, C
1462 Roth, K
1463 Kromer, B
1464 TI Possible solar origin of the 1,470-year glacial climate cycle
1465 demonstrated in a coupled model
1466 SO NATURE
1467 LA English
1468 DT Article
1469 ID GREENLAND ICE CORES; NORTH-ATLANTIC; THERMOHALINE CIRCULATION;
1470 STOCHASTIC RESONANCE; VARIABILITY; RECORDS; OZONE; GISP2
1471 AB Many palaeoclimate records from the North Atlantic region show a
1472 pattern of rapid climate oscillations, the so-called Dansgaard Oeschger
1473 events, with a quasi-periodicity of similar to 1,470 years for the late
1474 glacial period(1-6). Various hypotheses have been suggested to explain
1475 these rapid temperature shifts, including internal oscillations in the
1476 climate system and external forcing, possibly from the Sun(7). But
1477 whereas pronounced solar cycles of similar to 87 and similar to 210
1478 years are well known(8-12), a similar to 1,470-year solar cycle has not
1479 been detected(8). Here we show that an intermediate-complexity climate
1480 model with glacial climate conditions simulates rapid climate shifts
1481 similar to the Dansgaard - Oeschger events with a spacing of 1,470
1482 years when forced by periodic freshwater input into the North Atlantic
1483 Ocean in cycles of, 87 and, 210 years. We attribute the robust
1484 1,470-year response time to the superposition of the two shorter
1485 cycles, together with strongly nonlinear dynamics and the long
1486 characteristic timescale of the thermohaline circulation. For Holocene
1487 conditions, similar events do not occur. We conclude that the glacial
1488 1,470-year climate cycles could have been triggered by solar forcing
1489 despite the absence of a 1,470-year solar cycle.
1490 C1 Univ Heidelberg, Inst Environm Phys, Heidelberg Acad Sci, D-69120 Heidelberg, Germany.
1491 Potsdam Inst Climate Impact Res, D-14412 Potsdam, Germany.
1492 Alfred Wegener Inst Polar & Marine Res, D-27570 Bremerhaven, Germany.
1493 RP Braun, H, Univ Heidelberg, Inst Environm Phys, Heidelberg Acad Sci,
1494 Neuenheimer Feld 229, D-69120 Heidelberg, Germany.
1495 EM holger.braun@iup.uni-heidelberg.de
1496 NR 30
1497 TC 0
1498 PU NATURE PUBLISHING GROUP
1499 PI LONDON
1500 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1501 SN 0028-0836
1502 J9 NATURE
1503 JI Nature
1504 PD NOV 10
1505 PY 2005
1506 VL 438
1507 IS 7065
1508 BP 208
1509 EP 211
1510 PG 4
1511 SC Multidisciplinary Sciences
1512 GA 982BV
1513 UT ISI:000233133500045
1514 ER
1515
1516 PT J
1517 AU Olson, EL
1518 Allen, RM
1519 TI The deterministic nature of earthquake rupture
1520 SO NATURE
1521 LA English
1522 DT Article
1523 ID SEISMIC NUCLEATION PHASE; SOUTHERN CALIFORNIA; 1994 NORTHRIDGE;
1524 GROUND-MOTION; SIZE; RIDGECREST; MAGNITUDE; FORESHOCK; SEQUENCE; STRESS
1525 AB Understanding the earthquake rupture process is central to our
1526 understanding of fault systems and earthquake hazards. Multiple
1527 hypotheses concerning the nature of fault rupture have been proposed
1528 but no unifying theory has emerged(1-12). The conceptual hypothesis
1529 most commonly cited is the cascade model for fault rupture(1,3,10,13).
1530 In the cascade model, slip initiates on a small fault patch and
1531 continues to rupture further across a fault plane as long as the
1532 conditions are favourable. Two fundamental implications of this
1533 domino-like theory are that small earthquakes begin in the same manner
1534 as large earthquakes and that the rupture process is not deterministic
1535 - that is, the size of the earthquake cannot be determined until the
1536 cessation of rupture. Here we show that the frequency content of
1537 radiated seismic energy within the first few seconds of rupture scales
1538 with the final magnitude of the event. We infer that the magnitude of
1539 an earthquake can therefore be estimated before the rupture is
1540 complete. This finding implies that the rupture process is to some
1541 degree deterministic and has implications for the physics of the
1542 rupture process.
1543 C1 Univ Calif Berkeley, Dept Earth & Planetary Sci, Berkeley, CA 94720 USA.
1544 Univ Wisconsin, Dept Geol & Geophys, Madison, WI 53706 USA.
1545 RP Allen, RM, Univ Calif Berkeley, Dept Earth & Planetary Sci, 307 McCone
1546 Hall, Berkeley, CA 94720 USA.
1547 EM rallen@berkeley.edu
1548 NR 28
1549 TC 1
1550 PU NATURE PUBLISHING GROUP
1551 PI LONDON
1552 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1553 SN 0028-0836
1554 J9 NATURE
1555 JI Nature
1556 PD NOV 10
1557 PY 2005
1558 VL 438
1559 IS 7065
1560 BP 212
1561 EP 215
1562 PG 4
1563 SC Multidisciplinary Sciences
1564 GA 982BV
1565 UT ISI:000233133500046
1566 ER
1567
1568 PT J
1569 AU Filardi, CE
1570 Moyle, RG
1571 TI Single origin of a pan-Pacific bird group and upstream colonization of
1572 Australasia
1573 SO NATURE
1574 LA English
1575 DT Article
1576 ID BIOGEOGRAPHY; ISLANDS; DNA; EXTINCTION; DISPERSAL; EVOLUTION; COMPLEX;
1577 MODEL
1578 AB Oceanic islands have long served as natural laboratories for
1579 understanding the diversification of life(1-4). In particular, the many
1580 thousands of islands spanning the tropical Pacific support an
1581 unparalleled array of terrestrial communities whose patterns of
1582 diversity contributed fundamental insights to the development of
1583 classical speciation and biogeographic theory(4-8). Much of this work
1584 is founded on an assumption derived from traditional taxonomic
1585 approaches, namely that faunas on these widely separated archipelagos
1586 stem from a simple one-way, downstream flow of colonists from
1587 continents to islands(2,4). Here we show, with the use of molecular
1588 phylogenetic data from one of the original bird families used to
1589 justify this assumption, that a diverse array of endemic island genera
1590 and species are the product of a single radiation that diversified
1591 across all major Pacific archipelagos in a non-stepping-stone fashion,
1592 and recently recolonized continental areas. The geographic scope and
1593 lineage-specific approach of this study reveal evolutionary patterns
1594 long obscured by traditional taxonomic surveys and indicate thatwidely
1595 dispersed archipelagos can be sources of biological diversity.
1596 C1 Amer Museum Nat Hist, Dept Ornithol, New York, NY 10024 USA.
1597 RP Filardi, CE, Amer Museum Nat Hist, Ctr Biodivers & Conservat, Cent Pk W
1598 & 79th St, New York, NY 10024 USA.
1599 EM filardi@amnh.org
1600 NR 30
1601 TC 0
1602 PU NATURE PUBLISHING GROUP
1603 PI LONDON
1604 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1605 SN 0028-0836
1606 J9 NATURE
1607 JI Nature
1608 PD NOV 10
1609 PY 2005
1610 VL 438
1611 IS 7065
1612 BP 216
1613 EP 219
1614 PG 4
1615 SC Multidisciplinary Sciences
1616 GA 982BV
1617 UT ISI:000233133500047
1618 ER
1619
1620 PT J
1621 AU Rifkin, SA
1622 Houle, D
1623 Kim, J
1624 White, KP
1625 TI A mutation accumulation assay reveals a broad capacity for rapid
1626 evolution of gene expression
1627 SO NATURE
1628 LA English
1629 DT Article
1630 ID DROSOPHILA-MELANOGASTER; PROFILES; CANALIZATION; SELECTION; TISSUE
1631 AB Mutation is the ultimate source of biological diversity because it
1632 generates the variation that fuels evolution(1). Gene expression is the
1633 first step by which an organism translates genetic information into
1634 developmental change. Here we estimate the rate at which mutation
1635 produces new variation in gene expression by measuring transcript
1636 abundances across the genome during the onset of metamorphosis in 12
1637 initially identical Drosophila melanogaster lines that independently
1638 accumulated mutations for 200 generations(2). We find statistically
1639 significant mutational variation for 39% of the genome and a wide range
1640 of variability across corresponding genes. As genes are upregulated in
1641 development their variability decreases, and as they are downregulated
1642 it increases, indicating that developmental context affects the
1643 evolution of gene expression. A strong correlation between mutational
1644 variance and environmental variance shows that there is the potential
1645 for widespread canalization(3). By comparing the evolutionary rates
1646 that we report here with differences between species(4,5), we conclude
1647 that gene expression does not evolve according to strictly neutral
1648 models. Although spontaneous mutations have the potential to generate
1649 abundant variation in gene expression, natural variation is relatively
1650 constrained.
1651 C1 Univ Penn, Dept Biol, Goddard Labs 203, Philadelphia, PA 19104 USA.
1652 Yale Univ, Dept Ecol & Evolutionary Biol, New Haven, CT 06520 USA.
1653 Yale Univ, Sch Med, Dept Genet, New Haven, CT 06520 USA.
1654 Florida State Univ, Dept Biol Sci, Tallahassee, FL 32306 USA.
1655 RP Kim, J, Univ Penn, Dept Biol, Goddard Labs 203, 415 S Univ Ave,
1656 Philadelphia, PA 19104 USA.
1657 EM junhyong@sas.upenn.edu
1658 kevin.white@yale.edu
1659 NR 30
1660 TC 0
1661 PU NATURE PUBLISHING GROUP
1662 PI LONDON
1663 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1664 SN 0028-0836
1665 J9 NATURE
1666 JI Nature
1667 PD NOV 10
1668 PY 2005
1669 VL 438
1670 IS 7065
1671 BP 220
1672 EP 223
1673 PG 4
1674 SC Multidisciplinary Sciences
1675 GA 982BV
1676 UT ISI:000233133500048
1677 ER
1678
1679 PT J
1680 AU Allen, E
1681 Ding, JQ
1682 Wang, W
1683 Pramanik, S
1684 Chou, J
1685 Yau, V
1686 Yang, YM
1687 TI Gigaxonin-controlled degradation of MAP1B light chain is critical to
1688 neuronal survival
1689 SO NATURE
1690 LA English
1691 DT Article
1692 ID GIANT AXONAL NEUROPATHY; UBIQUITIN-PROTEASOME SYSTEM;
1693 MICROTUBULE-ASSOCIATED PROTEINS; CYTOPLASMIC DYNEIN; WALLERIAN
1694 DEGENERATION; 1B; BINDING; KINESIN; BTB; LIGASES
1695 AB Giant axonal neuropathy (GAN) is a devastating sensory and motor
1696 neuropathy caused by mutations in the GAN gene, which encodes the
1697 ubiquitously expressed protein gigaxonin(1-5). Cytopathological
1698 features of GAN include axonal degeneration, with accumulation and
1699 aggregation of cytoskeletal components(6-7). Little is currently known
1700 about the molecular mechanisms underlying this recessive disorder. Here
1701 we show that gigaxonin controls protein degradation, and is essential
1702 for neuronal function and survival. We present evidence that gigaxonin
1703 binds to the ubiquitin-activating enzyme E1 through its amino-terminal
1704 BTB domain, while the carboxy-terminal kelch repeat domain interacts
1705 directly with the light chain (LC) of microtubule-associated protein 1B
1706 (MAP1B)(8). Overexpression of gigaxonin leads to enhanced degradation
1707 of MAP1B-LC, which can be antagonized by proteasome inhibitors.
1708 Ablation of gigaxonin causes a substantial accumulation of MAP1B-LC in
1709 GAN-null neurons. Moreover, we show that overexpression of MAP1B in
1710 wild-type cortical neurons leads to cell death characteristic of
1711 GAN-null neurons, whereas reducing MAP1B levels significantly improves
1712 the survival rate of null neurons. Our results identify gigaxonin as a
1713 ubiquitin scaffolding protein that controls MAP1B-LC degradation, and
1714 provide insight into the molecular mechanisms underlying human
1715 neurodegenerative disorders.
1716 C1 Stanford Univ, Sch Med, Dept Neurol & Neurol Sci, Stanford, CA 94305 USA.
1717 RP Yang, YM, Stanford Univ, Sch Med, Dept Neurol & Neurol Sci, 1201 Welch
1718 Rd, Stanford, CA 94305 USA.
1719 EM yyanmin@stanford.edu
1720 NR 25
1721 TC 0
1722 PU NATURE PUBLISHING GROUP
1723 PI LONDON
1724 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1725 SN 0028-0836
1726 J9 NATURE
1727 JI Nature
1728 PD NOV 10
1729 PY 2005
1730 VL 438
1731 IS 7065
1732 BP 224
1733 EP 228
1734 PG 5
1735 SC Multidisciplinary Sciences
1736 GA 982BV
1737 UT ISI:000233133500049
1738 ER
1739
1740 PT J
1741 AU Kimura, KI
1742 Ote, M
1743 Tazawa, T
1744 Yamamoto, D
1745 TI Fruitless specifies sexually dimorphic neural circuitry in the
1746 Drosophila brain
1747 SO NATURE
1748 LA English
1749 DT Article
1750 ID MALE COURTSHIP BEHAVIOR; PROGRAMMED CELL-DEATH; EXPRESSION PATTERNS;
1751 GENE; MELANOGASTER; MUSCLE; ORIENTATION; NEURONS; SYSTEM; FLIES
1752 AB The Drosophila fruitless (fru) gene product Fru has been postulated to
1753 be a neural sex determination factor that directs development of the
1754 central nervous system (CNS), thereby producing male-typical courtship
1755 behaviour and inducing male-specific muscle(1-6). Male-specific Fru
1756 protein is expressed in small groups of neurons scattered throughout
1757 the CNS of male, but not female, Drosophila(4,7). Collectively, these
1758 observations suggest that Fru 'masculinizes' certain neurons, thereby
1759 establishing neural substrates for male-typical behaviour. However,
1760 specific differences between neurons resulting from the presence or
1761 absence of Fru are unknown. Previous studies have suggested that Fru
1762 might result in sexual differences in the CNS at the functional level,
1763 as no overt sexual dimorphism in CNS structure was discernible(8-10).
1764 Here we identify a subset of fru-expressing interneurons in the brain
1765 that show marked sexual dimorphism in their number and projection
1766 pattern. We also demonstrate that Fru supports the development of
1767 neurons with male-specific dendritic fields, which are programmed to
1768 die during female development as a result of the absence of Fru. Thus,
1769 Fru expression can produce a male-specific neural circuit, probably
1770 used during heterosexual courtship, by preventing cell death in
1771 identifiable neurons.
1772 C1 Hokkaido Univ, Biol Lab, Iwamizawa 0688642, Japan.
1773 Waseda Univ, Adv Inst Sci & Engn, Tokyo 1698555, Japan.
1774 Tohoku Univ, Grad Sch Life Sci, Sendai, Miyagi 9808578, Japan.
1775 RP Kimura, KI, Hokkaido Univ, Biol Lab, Iwamizawa Campus, Iwamizawa
1776 0688642, Japan.
1777 EM kimura@iwa.hokkyodai.ac.jp
1778 NR 24
1779 TC 0
1780 PU NATURE PUBLISHING GROUP
1781 PI LONDON
1782 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1783 SN 0028-0836
1784 J9 NATURE
1785 JI Nature
1786 PD NOV 10
1787 PY 2005
1788 VL 438
1789 IS 7065
1790 BP 229
1791 EP 233
1792 PG 5
1793 SC Multidisciplinary Sciences
1794 GA 982BV
1795 UT ISI:000233133500050
1796 ER
1797
1798 PT J
1799 AU Lee, N
1800 Maurange, C
1801 Ringrose, L
1802 Paro, R
1803 TI Suppression of Polycomb group proteins by JNK signalling induces
1804 transdetermination in Drosophila imaginal discs
1805 SO NATURE
1806 LA English
1807 DT Article
1808 ID METHYLTRANSFERASE ACTIVITY; PATHWAY; COMPLEX; WINGLESS; ENHANCER;
1809 ENCODES; CLOSURE; KINASE; DJUN; EYE
1810 AB During the regeneration of Drosophila imaginal discs, cellular
1811 identities can switch fate in a process known as transdetermination(1).
1812 For leg-to-wing transdetermination, the underlying mechanism involves
1813 morphogens such as Wingless that, when activated outside their normal
1814 context, induce ectopic expression of the wing-specific selector gene
1815 vestigial(2,3). Polycomb group (PcG) proteins maintain cellular fates
1816 by controlling the expression patterns of homeotic genes and other
1817 developmental regulators(4). Here we report that transdetermination
1818 events are coupled to PcG regulation. We show that the frequency of
1819 transdetermination is enhanced in PcG mutant flies. Downregulation of
1820 PcG function, as monitored by the reactivation of a silent
1821 PcG-regulated reporter gene, is observed in transdetermined cells. This
1822 downregulation is directly controlled by the Jun amino-terminal kinase
1823 (JNK) signalling pathway, which is activated in cells undergoing
1824 regeneration. Accordingly, transdetermination frequency is reduced in a
1825 JNK mutant background. This regulatory interaction also occurs in
1826 mammalian cells, indicating that the role of this signalling cascade in
1827 remodelling cellular fates may be conserved.
1828 C1 Univ Heidelberg, Ctr Mol Biol Heidelberg ZMBH, D-69120 Heidelberg, Germany.
1829 RP Paro, R, Univ Heidelberg, Ctr Mol Biol Heidelberg ZMBH, D-69120
1830 Heidelberg, Germany.
1831 EM paro@zmbh.uni-heidelberg.de
1832 NR 28
1833 TC 0
1834 PU NATURE PUBLISHING GROUP
1835 PI LONDON
1836 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1837 SN 0028-0836
1838 J9 NATURE
1839 JI Nature
1840 PD NOV 10
1841 PY 2005
1842 VL 438
1843 IS 7065
1844 BP 234
1845 EP 237
1846 PG 4
1847 SC Multidisciplinary Sciences
1848 GA 982BV
1849 UT ISI:000233133500051
1850 ER
1851
1852 PT J
1853 AU Stoleru, D
1854 Peng, Y
1855 Nawathean, P
1856 Rosbash, M
1857 TI A resetting signal between Drosophila pacemakers synchronizes morning
1858 and evening activity
1859 SO NATURE
1860 LA English
1861 DT Article
1862 ID CIRCADIAN GENE-EXPRESSION; CLOCK GENE; SUPRACHIASMATIC NUCLEUS;
1863 INDIVIDUAL FIBROBLASTS; NERVOUS-SYSTEM; TIMELESS GENES; NEURONS; BRAIN;
1864 CELLS; NEUROPEPTIDE
1865 AB The biochemical machinery that underlies circadian rhythms is conserved
1866 among animal species and drives self-sustained molecular oscillations
1867 and functions, even within individual asynchronous tissue-culture
1868 cells(1-3). Yet the rhythm- generating neural centres of higher
1869 eukaryotes are usually composed of interconnected cellular networks,
1870 which contribute to robustness and synchrony as well as other complex
1871 features of rhythmic behaviour(4-7). In mammals, little is known about
1872 how individual brain oscillators are organized to orchestrate a complex
1873 behavioural pattern. Drosophila is arguably more advanced from this
1874 point of view: we and others have recently shown that a group of adult
1875 brain clock neurons expresses the neuropeptide PDF8 and controls
1876 morning activity ( small LNv cells; M-cells), whereas another group of
1877 clock neurons controls evening activity (CRY+, PDF- cells;
1878 E-cells)(6,9). We have generated transgenic mosaic animals with
1879 different circadian periods in morning and evening cells. Here we show,
1880 by behavioural and molecular assays, that the six canonical groups of
1881 clock neurons(10) are organized into two separate neuronal circuits.
1882 One has no apparent effect on locomotor rhythmicity in darkness, but
1883 within the second circuit the molecular and behavioural timing of the
1884 evening cells is determined by morning-cell properties. This is due to
1885 a daily resetting signal from the morning to the evening cells, which
1886 run at their genetically programmed pace between consecutive signals.
1887 This neural circuit and oscillator-coupling mechanism ensures a proper
1888 relationship between the timing of morning and evening locomotor
1889 activity.
1890 C1 Brandeis Univ, Howard Hughes Med Inst, Waltham, MA 02454 USA.
1891 Brandeis Univ, Natl Ctr Behav Genom, Dept Biol, Waltham, MA 02454 USA.
1892 RP Rosbash, M, Brandeis Univ, Howard Hughes Med Inst, Waltham, MA 02454
1893 USA.
1894 EM rosbash@brandeis.edu
1895 NR 24
1896 TC 1
1897 PU NATURE PUBLISHING GROUP
1898 PI LONDON
1899 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1900 SN 0028-0836
1901 J9 NATURE
1902 JI Nature
1903 PD NOV 10
1904 PY 2005
1905 VL 438
1906 IS 7065
1907 BP 238
1908 EP 242
1909 PG 5
1910 SC Multidisciplinary Sciences
1911 GA 982BV
1912 UT ISI:000233133500052
1913 ER
1914
1915 PT J
1916 AU Lee, WY
1917 Sine, SM
1918 TI Principal pathway coupling agonist binding to channel gating in
1919 nicotinic receptors
1920 SO NATURE
1921 LA English
1922 DT Article
1923 ID ACETYLCHOLINE-RECEPTOR; EXTRACELLULAR DOMAIN; CONFORMATIONAL-CHANGES;
1924 CHARGED RESIDUES; GLYCINE RECEPTOR; GABA(A) RECEPTOR; ASPARTIC-ACID;
1925 ACH-BINDING; ACTIVATION; SUBUNIT
1926 AB Synaptic receptors respond to neurotransmitters by opening an intrinsic
1927 ion channel in the final step in synaptic transmission. How binding of
1928 the neurotransmitter is conveyed over the long distance to the channel
1929 remains a central question in neurobiology. Here we delineate a
1930 principal pathway that links neurotransmitter binding to channel gating
1931 by using a structural model of the Torpedo acetylcholine receptor at
1932 4-angstrom resolution(1), recordings of currents through single
1933 receptor channels and determinations of energetic coupling between
1934 pairs of residues. We show that a pair of invariant arginine and
1935 glutamate residues in each receptor alpha-subunit electrostatically
1936 links peripheral and inner beta-sheets from the binding domain and
1937 positions them to engage with the channel. The key glutamate and
1938 flanking valine residues energetically couple to conserved proline and
1939 serine residues emerging from the top of the channel-forming
1940 alpha-helix, suggesting that this is the point at which the binding
1941 domain triggers opening of the channel. The series of interresidue
1942 couplings identified here constitutes a primary allosteric pathway that
1943 links neurotransmitter binding to channel gating.
1944 C1 Mayo Clin & Mayo Fdn, Coll Med, Dept Physiol & Biomed Engn, Receptor Biol Lab, Rochester, MN 55905 USA.
1945 Mayo Clin & Mayo Fdn, Coll Med, Mol Neurosci Grad Program, Rochester, MN 55905 USA.
1946 RP Sine, SM, Mayo Clin & Mayo Fdn, Coll Med, Dept Physiol & Biomed Engn,
1947 Receptor Biol Lab, 200 1st St SW, Rochester, MN 55905 USA.
1948 EM sine@mayo.edu
1949 NR 30
1950 TC 1
1951 PU NATURE PUBLISHING GROUP
1952 PI LONDON
1953 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
1954 SN 0028-0836
1955 J9 NATURE
1956 JI Nature
1957 PD NOV 10
1958 PY 2005
1959 VL 438
1960 IS 7065
1961 BP 243
1962 EP 247
1963 PG 5
1964 SC Multidisciplinary Sciences
1965 GA 982BV
1966 UT ISI:000233133500053
1967 ER
1968
1969 PT J
1970 AU Lummis, SCR
1971 Beene, DL
1972 Lee, LW
1973 Lester, HA
1974 Broadhurst, RW
1975 Dougherty, DA
1976 TI Cis-trans isomerization at a proline opens the pore of a
1977 neurotransmitter-gated ion channel
1978 SO NATURE
1979 LA English
1980 DT Article
1981 ID RECEPTOR M2-M3 LOOP; ACETYLCHOLINE-RECEPTOR; 5-HT3 RECEPTOR; NICOTINIC
1982 RECEPTOR; GATING MECHANISM; GABA(A) RECEPTOR; AGONIST-BINDING;
1983 RESIDUES; ACCESSIBILITY; CONFORMATION
1984 AB 5-Hydroxytryptamine type 3 (5-HT3) receptors are members of the
1985 Cys-loop receptor superfamily(1). Neurotransmitter binding in these
1986 proteins triggers the opening (gating) of an ion channel by means of an
1987 as-yet-uncharacterized conformational change. Here we show that a
1988 specific proline ( Pro 8*), located at the apex of the loop between the
1989 second and third transmembrane helices (M2 - M3)(2,3), can link binding
1990 to gating through a cis-trans isomerization of the protein backbone.
1991 Using unnatural amino acid mutagenesis, a series of proline analogues
1992 with varying preference for the cis conformer was incorporated at the
1993 8* position. Proline analogues that strongly favour the trans conformer
1994 produced nonfunctional channels. Among the functional mutants there was
1995 a strong correlation between the intrinsic cis - trans energy gap of
1996 the proline analogue and the activation of the channel, suggesting that
1997 cis - trans isomerization of this single proline provides the switch
1998 that interconverts the open and closed states of the channel.
1999 Consistent with this proposal, nuclear magnetic resonance studies on an
2000 M2 - M3 loop peptide reveal two distinct, structured forms. Our results
2001 thus confirm the structure of the M2 - M3 loop and the critical role of
2002 Pro 8* in the 5-HT3 receptor. In addition, they suggest that a
2003 molecular rearrangement at Pro 8* is the structural mechanism that
2004 opens the receptor pore.
2005 C1 CALTECH, Div Chem & Chem Engn, Pasadena, CA 91125 USA.
2006 Univ Cambridge, Dept Biochem, Cambridge CB2 1GA, England.
2007 CALTECH, Div Biol, Pasadena, CA 91125 USA.
2008 RP Dougherty, DA, CALTECH, Div Chem & Chem Engn, Pasadena, CA 91125 USA.
2009 EM dadougherty@caltech.edu
2010 NR 30
2011 TC 1
2012 PU NATURE PUBLISHING GROUP
2013 PI LONDON
2014 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2015 SN 0028-0836
2016 J9 NATURE
2017 JI Nature
2018 PD NOV 10
2019 PY 2005
2020 VL 438
2021 IS 7065
2022 BP 248
2023 EP 252
2024 PG 5
2025 SC Multidisciplinary Sciences
2026 GA 982BV
2027 UT ISI:000233133500054
2028 ER
2029
2030 PT J
2031 AU Brumfiel, G
2032 TI The crime of the century - A little family planning.
2033 SO NATURE
2034 LA English
2035 DT Editorial Material
2036 NR 0
2037 TC 0
2038 PU NATURE PUBLISHING GROUP
2039 PI LONDON
2040 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2041 SN 0028-0836
2042 J9 NATURE
2043 JI Nature
2044 PD NOV 10
2045 PY 2005
2046 VL 438
2047 IS 7065
2048 BP 256
2049 EP 256
2050 PG 1
2051 SC Multidisciplinary Sciences
2052 GA 982BV
2053 UT ISI:000233133500055
2054 ER
2055
2056 PT J
2057 AU [Anon]
2058 TI Taking a stand on animal-rights violence
2059 SO NATURE
2060 LA English
2061 DT Editorial Material
2062 NR 0
2063 TC 0
2064 PU NATURE PUBLISHING GROUP
2065 PI LONDON
2066 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2067 SN 0028-0836
2068 J9 NATURE
2069 JI Nature
2070 PD NOV 3
2071 PY 2005
2072 VL 438
2073 IS 7064
2074 BP 1
2075 EP 1
2076 PG 1
2077 SC Multidisciplinary Sciences
2078 GA 979XS
2079 UT ISI:000232979000001
2080 ER
2081
2082 PT J
2083 AU [Anon]
2084 TI Turkey's evolution
2085 SO NATURE
2086 LA English
2087 DT Editorial Material
2088 NR 0
2089 TC 0
2090 PU NATURE PUBLISHING GROUP
2091 PI LONDON
2092 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2093 SN 0028-0836
2094 J9 NATURE
2095 JI Nature
2096 PD NOV 3
2097 PY 2005
2098 VL 438
2099 IS 7064
2100 BP 1
2101 EP 2
2102 PG 2
2103 SC Multidisciplinary Sciences
2104 GA 979XS
2105 UT ISI:000232979000002
2106 ER
2107
2108 PT J
2109 AU [Anon]
2110 TI Clamp down on copycats
2111 SO NATURE
2112 LA English
2113 DT Editorial Material
2114 NR 0
2115 TC 0
2116 PU NATURE PUBLISHING GROUP
2117 PI LONDON
2118 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2119 SN 0028-0836
2120 J9 NATURE
2121 JI Nature
2122 PD NOV 3
2123 PY 2005
2124 VL 438
2125 IS 7064
2126 BP 2
2127 EP 2
2128 PG 1
2129 SC Multidisciplinary Sciences
2130 GA 979XS
2131 UT ISI:000232979000003
2132 ER
2133
2134 PT J
2135 AU Butler, D
2136 TI Wartime tactic doubles power of scarce bird-flu drug
2137 SO NATURE
2138 LA English
2139 DT News Item
2140 AB Tamiflu (oseltamivir phosphate) is the main bird flu medicine
2141 recommended by WHO. However, eventhough the drug's sole supplier Roche
2142 has increased its production capacity, the current supply is just about
2143 2% of the world population. One solution involves administering
2144 probenecid in combination, as this can givethe same therapeutic effect
2145 at half the dose. However, there seems to be a lack of interest amongst
2146 Roche and the relevant authorities in pursuing this approach.
2147 NR 1
2148 TC 0
2149 PU NATURE PUBLISHING GROUP
2150 PI LONDON
2151 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2152 SN 0028-0836
2153 J9 NATURE
2154 JI Nature
2155 PD NOV 3
2156 PY 2005
2157 VL 438
2158 IS 7064
2159 BP 6
2160 EP 6
2161 PG 1
2162 SC Multidisciplinary Sciences
2163 GA 979XS
2164 UT ISI:000232979000004
2165 ER
2166
2167 PT J
2168 AU Towie, N
2169 TI Drug firms donate compounds for anti-HIV gel
2170 SO NATURE
2171 LA English
2172 DT News Item
2173 AB Motivated by positive results reported in this week's Nature, two drug
2174 companies have given away rights to two key compounds, so that they can
2175 be developed into gels that protect against human immunodeficiency
2176 virus (HIV). Such a gel could help many women to protect themselves, as
2177 they often find it difficult to get partners to use condoms,
2178 particularly in the developing world where men may disapprove of the
2179 practice. Experts say that a mocrobicide applied to the vagina before
2180 sex could save 2.5 millions lives in just three years.)
2181 NR 0
2182 TC 0
2183 PU NATURE PUBLISHING GROUP
2184 PI LONDON
2185 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2186 SN 0028-0836
2187 J9 NATURE
2188 JI Nature
2189 PD NOV 3
2190 PY 2005
2191 VL 438
2192 IS 7064
2193 BP 6
2194 EP 7
2195 PG 2
2196 SC Multidisciplinary Sciences
2197 GA 979XS
2198 UT ISI:000232979000005
2199 ER
2200
2201 PT J
2202 AU Dalton, R
2203 TI Universities scramble to assess scope of falsified results
2204 SO NATURE
2205 LA English
2206 DT News Item
2207 ID RNA INTERFERENCE; GENES
2208 NR 7
2209 TC 0
2210 PU NATURE PUBLISHING GROUP
2211 PI LONDON
2212 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2213 SN 0028-0836
2214 J9 NATURE
2215 JI Nature
2216 PD NOV 3
2217 PY 2005
2218 VL 438
2219 IS 7064
2220 BP 7
2221 EP 7
2222 PG 1
2223 SC Multidisciplinary Sciences
2224 GA 979XS
2225 UT ISI:000232979000006
2226 ER
2227
2228 PT J
2229 AU Simonite, T
2230 TI Protists push animals aside in rule revamp
2231 SO NATURE
2232 LA English
2233 DT News Item
2234 AB Eukaryotes, organisms whose cells have a nucleus, have traditionally
2235 been separated into four kingdoms. They have been reorganized into six
2236 kingdoms. The authors of the revision hope that it will bring peace to
2237 a long divided discipline, and raise awareness of the diversity of
2238 single-celled organisms.
2239 NR 1
2240 TC 0
2241 PU NATURE PUBLISHING GROUP
2242 PI LONDON
2243 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2244 SN 0028-0836
2245 J9 NATURE
2246 JI Nature
2247 PD NOV 3
2248 PY 2005
2249 VL 438
2250 IS 7064
2251 BP 8
2252 EP 9
2253 PG 2
2254 SC Multidisciplinary Sciences
2255 GA 979XS
2256 UT ISI:000232979000007
2257 ER
2258
2259 PT J
2260 AU Abbott, A
2261 TI Turkish rectors rally in support of university head thrown in jail
2262 SO NATURE
2263 LA English
2264 DT News Item
2265 NR 0
2266 TC 0
2267 PU NATURE PUBLISHING GROUP
2268 PI LONDON
2269 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2270 SN 0028-0836
2271 J9 NATURE
2272 JI Nature
2273 PD NOV 3
2274 PY 2005
2275 VL 438
2276 IS 7064
2277 BP 8
2278 EP 9
2279 PG 2
2280 SC Multidisciplinary Sciences
2281 GA 979XS
2282 UT ISI:000232979000008
2283 ER
2284
2285 PT J
2286 AU Dalton, R
2287 TI Floods fail to save canyon beaches
2288 SO NATURE
2289 LA English
2290 DT News Item
2291 AB The Colorado River, which runs along the Grand Canyon in Arizona, used
2292 to be brown with sediment. It was flanked by extensive beaches and
2293 sandbars that provided habitat for species found nowhere else. The
2294 humpback chub ( Gila cypha) is one such species, a fish with degenerate
2295 eyes and a prominent hump that stabilizes it in the river's swirling
2296 waters. However, in 1963 the Glen Canyon Dam, which is now the major
2297 power source in the southwestern United States, was completed. As a
2298 result, the river downstream of the dam runs slow and clear, the
2299 beaches and sandbars have eroded dramatically, and the humpback chub is
2300 critically endangered. In 1996, after years of debate, scientists at
2301 the United States Geological Survey agreed on a plan to restore the
2302 ecosystem. They hoped that releasing a massive flood through the dam
2303 would shift sediment trapped at the bottom of the river and rebuild the
2304 beaches. Later that year, they pumped an extra 1,290 cubic metres of
2305 water per second down the canyon for a week, atan estimated cost to
2306 power companies of $ 2.5 million.
2307 NR 1
2308 TC 0
2309 PU NATURE PUBLISHING GROUP
2310 PI LONDON
2311 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2312 SN 0028-0836
2313 J9 NATURE
2314 JI Nature
2315 PD NOV 3
2316 PY 2005
2317 VL 438
2318 IS 7064
2319 BP 10
2320 EP 10
2321 PG 1
2322 SC Multidisciplinary Sciences
2323 GA 979XS
2324 UT ISI:000232979000009
2325 ER
2326
2327 PT J
2328 AU Brumfiel, G
2329 Miller, K
2330 Padian, K
2331 TI Expert witness: the scientists who testified against intelligent design
2332 SO NATURE
2333 LA English
2334 DT Editorial Material
2335 NR 0
2336 TC 0
2337 PU NATURE PUBLISHING GROUP
2338 PI LONDON
2339 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2340 SN 0028-0836
2341 J9 NATURE
2342 JI Nature
2343 PD NOV 3
2344 PY 2005
2345 VL 438
2346 IS 7064
2347 BP 11
2348 EP 11
2349 PG 1
2350 SC Multidisciplinary Sciences
2351 GA 979XS
2352 UT ISI:000232979000010
2353 ER
2354
2355 PT J
2356 AU Check, E
2357 TI Gene study raises fears for three-parent babies
2358 SO NATURE
2359 LA English
2360 DT News Item
2361 AB Controversy has been caused by an assisted reproduction technique that
2362 mixes mitochondria from two women. The technique has raised ethical
2363 concerns as the resulting babies have DNA from two mothers as well as
2364 the father.
2365 NR 1
2366 TC 0
2367 PU NATURE PUBLISHING GROUP
2368 PI LONDON
2369 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2370 SN 0028-0836
2371 J9 NATURE
2372 JI Nature
2373 PD NOV 3
2374 PY 2005
2375 VL 438
2376 IS 7064
2377 BP 12
2378 EP 12
2379 PG 1
2380 SC Multidisciplinary Sciences
2381 GA 979XS
2382 UT ISI:000232979000011
2383 ER
2384
2385 PT J
2386 AU Jones, D
2387 TI Personal effects
2388 SO NATURE
2389 LA English
2390 DT News Item
2391 AB Small organisms, such as cyanobacteria, can have a big impact. Each
2392 living thing effects the environment they live in. This has ecological
2393 and evolutionary consequences.
2394 NR 7
2395 TC 0
2396 PU NATURE PUBLISHING GROUP
2397 PI LONDON
2398 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2399 SN 0028-0836
2400 J9 NATURE
2401 JI Nature
2402 PD NOV 3
2403 PY 2005
2404 VL 438
2405 IS 7064
2406 BP 14
2407 EP 16
2408 PG 3
2409 SC Multidisciplinary Sciences
2410 GA 979XS
2411 UT ISI:000232979000012
2412 ER
2413
2414 PT J
2415 AU Cherry, M
2416 TI Star of the south
2417 SO NATURE
2418 LA English
2419 DT News Item
2420 NR 0
2421 TC 0
2422 PU NATURE PUBLISHING GROUP
2423 PI LONDON
2424 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2425 SN 0028-0836
2426 J9 NATURE
2427 JI Nature
2428 PD NOV 3
2429 PY 2005
2430 VL 438
2431 IS 7064
2432 BP 18
2433 EP 19
2434 PG 2
2435 SC Multidisciplinary Sciences
2436 GA 979XS
2437 UT ISI:000232979000013
2438 ER
2439
2440 PT J
2441 AU [Anon]
2442 TI Sharp shooter
2443 SO NATURE
2444 LA English
2445 DT News Item
2446 NR 0
2447 TC 0
2448 PU NATURE PUBLISHING GROUP
2449 PI LONDON
2450 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2451 SN 0028-0836
2452 J9 NATURE
2453 JI Nature
2454 PD NOV 3
2455 PY 2005
2456 VL 438
2457 IS 7064
2458 BP 18
2459 EP 18
2460 PG 1
2461 SC Multidisciplinary Sciences
2462 GA 979XS
2463 UT ISI:000232979000014
2464 ER
2465
2466 PT J
2467 AU Schrope, M
2468 TI Winds of change
2469 SO NATURE
2470 LA English
2471 DT News Item
2472 NR 2
2473 TC 0
2474 PU NATURE PUBLISHING GROUP
2475 PI LONDON
2476 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2477 SN 0028-0836
2478 J9 NATURE
2479 JI Nature
2480 PD NOV 3
2481 PY 2005
2482 VL 438
2483 IS 7064
2484 BP 21
2485 EP 22
2486 PG 2
2487 SC Multidisciplinary Sciences
2488 GA 979XS
2489 UT ISI:000232979000015
2490 ER
2491
2492 PT J
2493 AU Wadman, M
2494 TI Race is on for flu vaccine
2495 SO NATURE
2496 LA English
2497 DT News Item
2498 ID A/DUCK/SINGAPORE/97 H5N3 VACCINE; MF59-ADJUVANTED INFLUENZA
2499 AB Drug companies are using adjuvants to boost their vaccines in a bid to
2500 be ready for a flu pandemic. The cell-surface proteins of flu viruses
2501 change, or drift, over time, so vaccine makers can't develop a vaccine
2502 in advance that they know will work if bird flu acquires the ability to
2503 pass between humans, triggering a pandemic. What is more, there aren
2504 not many companies in the race, afterlow profits drove many to stop
2505 producing vaccines at all.
2506 NR 3
2507 TC 0
2508 PU NATURE PUBLISHING GROUP
2509 PI LONDON
2510 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2511 SN 0028-0836
2512 J9 NATURE
2513 JI Nature
2514 PD NOV 3
2515 PY 2005
2516 VL 438
2517 IS 7064
2518 BP 23
2519 EP 23
2520 PG 1
2521 SC Multidisciplinary Sciences
2522 GA 979XS
2523 UT ISI:000232979000016
2524 ER
2525
2526 PT J
2527 AU King, DA
2528 TI UK must go on promoting and funding science
2529 SO NATURE
2530 LA English
2531 DT Letter
2532 C1 Off Sci & Technol, London SW1H 0ET, England.
2533 RP King, DA, Off Sci & Technol, 1 Victoria St, London SW1H 0ET, England.
2534 NR 1
2535 TC 0
2536 PU NATURE PUBLISHING GROUP
2537 PI LONDON
2538 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2539 SN 0028-0836
2540 J9 NATURE
2541 JI Nature
2542 PD NOV 3
2543 PY 2005
2544 VL 438
2545 IS 7064
2546 BP 24
2547 EP 24
2548 PG 1
2549 SC Multidisciplinary Sciences
2550 GA 979XS
2551 UT ISI:000232979000017
2552 ER
2553
2554 PT J
2555 AU Hawksworth, DL
2556 TI Universal fungus register offers pattern for zoology
2557 SO NATURE
2558 LA English
2559 DT Letter
2560 C1 Univ Complutense Madrid, Dept Biol Vegetal 2, IUBS IUMS Int Comm Bionomenclature, E-28040 Madrid, Spain.
2561 RP Hawksworth, DL, Univ Complutense Madrid, Dept Biol Vegetal 2, IUBS IUMS
2562 Int Comm Bionomenclature, Plaza Ramon y Cajal, E-28040 Madrid, Spain.
2563 NR 3
2564 TC 0
2565 PU NATURE PUBLISHING GROUP
2566 PI LONDON
2567 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2568 SN 0028-0836
2569 J9 NATURE
2570 JI Nature
2571 PD NOV 3
2572 PY 2005
2573 VL 438
2574 IS 7064
2575 BP 24
2576 EP 24
2577 PG 1
2578 SC Multidisciplinary Sciences
2579 GA 979XS
2580 UT ISI:000232979000018
2581 ER
2582
2583 PT J
2584 AU Hsieh, YH
2585 TI Mapping the complexities of science and politics
2586 SO NATURE
2587 LA English
2588 DT Letter
2589 C1 Natl Chung Hsing Univ, Dept Appl Math, Taichung 402, Taiwan.
2590 RP Hsieh, YH, Natl Chung Hsing Univ, Dept Appl Math, Taichung 402, Taiwan.
2591 NR 2
2592 TC 0
2593 PU NATURE PUBLISHING GROUP
2594 PI LONDON
2595 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2596 SN 0028-0836
2597 J9 NATURE
2598 JI Nature
2599 PD NOV 3
2600 PY 2005
2601 VL 438
2602 IS 7064
2603 BP 24
2604 EP 24
2605 PG 1
2606 SC Multidisciplinary Sciences
2607 GA 979XS
2608 UT ISI:000232979000019
2609 ER
2610
2611 PT J
2612 AU Rutherford, A
2613 TI Mad, bad and dangerous: The scientist and the cinema
2614 SO NATURE
2615 LA English
2616 DT Book Review
2617 NR 1
2618 TC 0
2619 PU NATURE PUBLISHING GROUP
2620 PI LONDON
2621 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2622 SN 0028-0836
2623 J9 NATURE
2624 JI Nature
2625 PD NOV 3
2626 PY 2005
2627 VL 438
2628 IS 7064
2629 BP 25
2630 EP 26
2631 PG 2
2632 SC Multidisciplinary Sciences
2633 GA 979XS
2634 UT ISI:000232979000020
2635 ER
2636
2637 PT J
2638 AU Fitzpatrick, M
2639 TI The science and fiction of autism
2640 SO NATURE
2641 LA English
2642 DT Book Review
2643 NR 1
2644 TC 0
2645 PU NATURE PUBLISHING GROUP
2646 PI LONDON
2647 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2648 SN 0028-0836
2649 J9 NATURE
2650 JI Nature
2651 PD NOV 3
2652 PY 2005
2653 VL 438
2654 IS 7064
2655 BP 26
2656 EP 26
2657 PG 1
2658 SC Multidisciplinary Sciences
2659 GA 979XS
2660 UT ISI:000232979000021
2661 ER
2662
2663 PT J
2664 AU Moore, PD
2665 TI Demons in Eden: The paradox of plant diversity
2666 SO NATURE
2667 LA English
2668 DT Book Review
2669 C1 Univ London Kings Coll, Div Life Sci, London SE1 9NH, England.
2670 RP Moore, PD, Univ London Kings Coll, Div Life Sci, Franklin Wilkins
2671 Bldg,150 Stamford St, London SE1 9NH, England.
2672 NR 1
2673 TC 0
2674 PU NATURE PUBLISHING GROUP
2675 PI LONDON
2676 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2677 SN 0028-0836
2678 J9 NATURE
2679 JI Nature
2680 PD NOV 3
2681 PY 2005
2682 VL 438
2683 IS 7064
2684 BP 27
2685 EP 27
2686 PG 1
2687 SC Multidisciplinary Sciences
2688 GA 979XS
2689 UT ISI:000232979000022
2690 ER
2691
2692 PT J
2693 AU Heilbron, JL
2694 TI Wit and wisdom
2695 SO NATURE
2696 LA English
2697 DT Editorial Material
2698 C1 Museum Hist Sci, Oxford, England.
2699 RP Heilbron, JL, Museum Hist Sci, Broad St, Oxford, England.
2700 NR 2
2701 TC 0
2702 PU NATURE PUBLISHING GROUP
2703 PI LONDON
2704 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2705 SN 0028-0836
2706 J9 NATURE
2707 JI Nature
2708 PD NOV 3
2709 PY 2005
2710 VL 438
2711 IS 7064
2712 BP 29
2713 EP 29
2714 PG 1
2715 SC Multidisciplinary Sciences
2716 GA 979XS
2717 UT ISI:000232979000023
2718 ER
2719
2720 PT J
2721 AU Blinkhorn, S
2722 TI Intelligence - A gender bender
2723 SO NATURE
2724 LA English
2725 DT Editorial Material
2726 C1 Psychometr Res & Dev Ltd, St Albans AL1 3HT, Herts, England.
2727 RP Blinkhorn, S, Psychometr Res & Dev Ltd, Brewmaster House, St Albans AL1
2728 3HT, Herts, England.
2729 EM steve@prd.co.uk
2730 NR 3
2731 TC 0
2732 PU NATURE PUBLISHING GROUP
2733 PI LONDON
2734 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2735 SN 0028-0836
2736 J9 NATURE
2737 JI Nature
2738 PD NOV 3
2739 PY 2005
2740 VL 438
2741 IS 7064
2742 BP 31
2743 EP 32
2744 PG 2
2745 SC Multidisciplinary Sciences
2746 GA 979XS
2747 UT ISI:000232979000024
2748 ER
2749
2750 PT J
2751 AU Reynolds, C
2752 TI Astronomy - Light on a dark place
2753 SO NATURE
2754 LA English
2755 DT Editorial Material
2756 ID BLACK-HOLE; GALACTIC-CENTER
2757 C1 Univ Maryland, Dept Astron, College Pk, MD 20742 USA.
2758 RP Reynolds, C, Univ Maryland, Dept Astron, College Pk, MD 20742 USA.
2759 EM chris@astro.umd.edu
2760 NR 7
2761 TC 0
2762 PU NATURE PUBLISHING GROUP
2763 PI LONDON
2764 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2765 SN 0028-0836
2766 J9 NATURE
2767 JI Nature
2768 PD NOV 3
2769 PY 2005
2770 VL 438
2771 IS 7064
2772 BP 32
2773 EP 33
2774 PG 2
2775 SC Multidisciplinary Sciences
2776 GA 979XS
2777 UT ISI:000232979000025
2778 ER
2779
2780 PT J
2781 AU Andersen, RA
2782 TI Microbiology Algae and the vitamin mosaic
2783 SO NATURE
2784 LA English
2785 DT Editorial Material
2786 ID DIATOMS
2787 C1 Bigelow Lab Ocean Sci, Provasoli Guillard Natl Ctr Culture Marine Phytop, W Boothbay Harbor, ME 04575 USA.
2788 RP Andersen, RA, Bigelow Lab Ocean Sci, Provasoli Guillard Natl Ctr
2789 Culture Marine Phytop, W Boothbay Harbor, ME 04575 USA.
2790 EM randersen@bigelow.org
2791 NR 12
2792 TC 0
2793 PU NATURE PUBLISHING GROUP
2794 PI LONDON
2795 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2796 SN 0028-0836
2797 J9 NATURE
2798 JI Nature
2799 PD NOV 3
2800 PY 2005
2801 VL 438
2802 IS 7064
2803 BP 33
2804 EP 35
2805 PG 2
2806 SC Multidisciplinary Sciences
2807 GA 979XS
2808 UT ISI:000232979000026
2809 ER
2810
2811 PT J
2812 AU Cazenave, A
2813 TI Global change - Sea level and volcanoes
2814 SO NATURE
2815 LA English
2816 DT Editorial Material
2817 C1 CNES, LEGOS, Lab Etud Geophys & Oceanog Spatiales, F-31401 Toulouse, France.
2818 RP Cazenave, A, CNES, LEGOS, Lab Etud Geophys & Oceanog Spatiales, 18 Ave
2819 Edouard Belin, F-31401 Toulouse, France.
2820 EM anny.cazenave@cnes.fr
2821 NR 11
2822 TC 0
2823 PU NATURE PUBLISHING GROUP
2824 PI LONDON
2825 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2826 SN 0028-0836
2827 J9 NATURE
2828 JI Nature
2829 PD NOV 3
2830 PY 2005
2831 VL 438
2832 IS 7064
2833 BP 35
2834 EP 36
2835 PG 2
2836 SC Multidisciplinary Sciences
2837 GA 979XS
2838 UT ISI:000232979000027
2839 ER
2840
2841 PT J
2842 AU Huang, YPJ
2843 Montelione, GT
2844 TI Structural biology - Proteins flex to function
2845 SO NATURE
2846 LA English
2847 DT Editorial Material
2848 ID DYNAMICS; CATALYSIS
2849 C1 Rutgers State Univ, Ctr Adv Biotechnol & Med, Piscataway, NJ 08854 USA.
2850 Univ Med & Dent New Jersey, Robert Wood Johnson Med Sch, Piscataway, NJ 08854 USA.
2851 RP Huang, YPJ, Rutgers State Univ, Ctr Adv Biotechnol & Med, Piscataway,
2852 NJ 08854 USA.
2853 EM guy@cabm.rutgers.edu
2854 NR 10
2855 TC 0
2856 PU NATURE PUBLISHING GROUP
2857 PI LONDON
2858 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2859 SN 0028-0836
2860 J9 NATURE
2861 JI Nature
2862 PD NOV 3
2863 PY 2005
2864 VL 438
2865 IS 7064
2866 BP 36
2867 EP 37
2868 PG 2
2869 SC Multidisciplinary Sciences
2870 GA 979XS
2871 UT ISI:000232979000028
2872 ER
2873
2874 PT J
2875 AU Ellis, RS
2876 TI Cosmology - The infrared dawn of starlight
2877 SO NATURE
2878 LA English
2879 DT Editorial Material
2880 ID TELESCOPE
2881 C1 CALTECH, Pasadena, CA 91125 USA.
2882 RP Ellis, RS, CALTECH, MS 105-24, Pasadena, CA 91125 USA.
2883 EM rse@astro.caltech.edu
2884 NR 6
2885 TC 0
2886 PU NATURE PUBLISHING GROUP
2887 PI LONDON
2888 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2889 SN 0028-0836
2890 J9 NATURE
2891 JI Nature
2892 PD NOV 3
2893 PY 2005
2894 VL 438
2895 IS 7064
2896 BP 39
2897 EP 39
2898 PG 1
2899 SC Multidisciplinary Sciences
2900 GA 979XS
2901 UT ISI:000232979000029
2902 ER
2903
2904 PT J
2905 AU Yarus, M
2906 TI Chemical biology - Bring them back alive
2907 SO NATURE
2908 LA English
2909 DT Editorial Material
2910 ID RIBOZYMES
2911 C1 Univ Colorado, Dept Mol Cellular & Dev Biol, Boulder, CO 80309 USA.
2912 RP Yarus, M, Univ Colorado, Dept Mol Cellular & Dev Biol, Boulder, CO
2913 80309 USA.
2914 EM yarus@colorado.edu
2915 NR 9
2916 TC 0
2917 PU NATURE PUBLISHING GROUP
2918 PI LONDON
2919 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2920 SN 0028-0836
2921 J9 NATURE
2922 JI Nature
2923 PD NOV 3
2924 PY 2005
2925 VL 438
2926 IS 7064
2927 BP 40
2928 EP 40
2929 PG 1
2930 SC Multidisciplinary Sciences
2931 GA 979XS
2932 UT ISI:000232979000030
2933 ER
2934
2935 PT J
2936 AU Moore, PD
2937 TI Ecology: Roots of stability (vol 437, pg 959, 2005)
2938 SO NATURE
2939 LA English
2940 DT Correction
2941 NR 2
2942 TC 0
2943 PU NATURE PUBLISHING GROUP
2944 PI LONDON
2945 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2946 SN 0028-0836
2947 J9 NATURE
2948 JI Nature
2949 PD NOV 3
2950 PY 2005
2951 VL 438
2952 IS 7064
2953 BP 40
2954 EP 40
2955 PG 1
2956 SC Multidisciplinary Sciences
2957 GA 979XS
2958 UT ISI:000232979000031
2959 ER
2960
2961 PT J
2962 AU Kinlen, L
2963 TI Richard Doll (1912-2005) Epidemiologist extraordinary. Obituary
2964 SO NATURE
2965 LA English
2966 DT Biographical-Item
2967 C1 Canc Epidemiol Unit, Oxford OX3 7LF, England.
2968 RP Kinlen, L, Canc Epidemiol Unit, Richard Doll Bldg,Roosevelt Dr, Oxford
2969 OX3 7LF, England.
2970 EM leo.kinlen@dphpc.ox.ac.uk
2971 NR 0
2972 TC 0
2973 PU NATURE PUBLISHING GROUP
2974 PI LONDON
2975 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
2976 SN 0028-0836
2977 J9 NATURE
2978 JI Nature
2979 PD NOV 3
2980 PY 2005
2981 VL 438
2982 IS 7064
2983 BP 41
2984 EP 41
2985 PG 1
2986 SC Multidisciplinary Sciences
2987 GA 979XS
2988 UT ISI:000232979000032
2989 ER
2990
2991 PT J
2992 AU Strogatz, SH
2993 Abrams, DM
2994 McRobie, A
2995 Eckhardt, B
2996 Ott, E
2997 TI Crowd synchrony on the Millennium Bridge
2998 SO NATURE
2999 LA English
3000 DT Editorial Material
3001 ID EXCITATION
3002 C1 Cornell Univ, Dept Theoret & Appl Mech, Ithaca, NY 14853 USA.
3003 Univ Maryland, College Pk, MD 20742 USA.
3004 Univ Marburg, Fachbereich Phys, D-35032 Marburg, Germany.
3005 RP Strogatz, SH, Cornell Univ, Dept Theoret & Appl Mech, Ithaca, NY 14853
3006 USA.
3007 EM strogatz@cornell.edu
3008 NR 10
3009 TC 0
3010 PU NATURE PUBLISHING GROUP
3011 PI LONDON
3012 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3013 SN 0028-0836
3014 J9 NATURE
3015 JI Nature
3016 PD NOV 3
3017 PY 2005
3018 VL 438
3019 IS 7064
3020 BP 43
3021 EP 44
3022 PG 2
3023 SC Multidisciplinary Sciences
3024 GA 979XS
3025 UT ISI:000232979000033
3026 ER
3027
3028 PT J
3029 AU Majumder, M
3030 Chopra, N
3031 Andrews, R
3032 Hinds, BJ
3033 TI Nanoscale hydrodynamics - Enhanced flow in carbon nanotubes
3034 SO NATURE
3035 LA English
3036 DT Editorial Material
3037 ID MEMBRANES
3038 C1 Univ Kentucky, Dept Chem & Mat Engn, Lexington, KY 40506 USA.
3039 Univ Kentucky, Ctr Appl Energy Res, Lexington, KY 40511 USA.
3040 RP Majumder, M, Univ Kentucky, Dept Chem & Mat Engn, Lexington, KY 40506
3041 USA.
3042 EM bjhinds@engr.uky.edu
3043 NR 10
3044 TC 0
3045 PU NATURE PUBLISHING GROUP
3046 PI LONDON
3047 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3048 SN 0028-0836
3049 J9 NATURE
3050 JI Nature
3051 PD NOV 3
3052 PY 2005
3053 VL 438
3054 IS 7064
3055 BP 44
3056 EP 44
3057 PG 1
3058 SC Multidisciplinary Sciences
3059 GA 979XS
3060 UT ISI:000232979000034
3061 ER
3062
3063 PT J
3064 AU Cadena, CD
3065 Ricklefs, RE
3066 Jimenez, I
3067 Bermingham, E
3068 TI Ecology - Is speciation driven by species diversity?
3069 SO NATURE
3070 LA English
3071 DT Editorial Material
3072 ID MOLECULAR PHYLOGENIES; AREA RELATIONSHIP; ISLAND; DIVERSIFICATION; AGE
3073 C1 Univ Missouri, Dept Biol, St Louis, MO 63121 USA.
3074 Missouri Bot Garden, Ctr Conservat & Sustainable Dev, St Louis, MO 63166 USA.
3075 Smithsonian Trop Res Inst, Balboa, Panama.
3076 RP Cadena, CD, Univ Missouri, Dept Biol, 8001 Nat Bridge Rd, St Louis, MO
3077 63121 USA.
3078 EM cdc35b@umsl.edu
3079 NR 11
3080 TC 0
3081 PU NATURE PUBLISHING GROUP
3082 PI LONDON
3083 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3084 SN 0028-0836
3085 J9 NATURE
3086 JI Nature
3087 PD NOV 3
3088 PY 2005
3089 VL 438
3090 IS 7064
3091 BP E1
3092 EP E2
3093 PG 2
3094 SC Multidisciplinary Sciences
3095 GA 979XS
3096 UT ISI:000232979000035
3097 ER
3098
3099 PT J
3100 AU Emerson, BC
3101 Kolm, N
3102 TI Ecology - Is speciation driven by species diversity? Reply
3103 SO NATURE
3104 LA English
3105 DT Editorial Material
3106 ID LESSER ANTILLEAN AVIFAUNA; ISLANDS
3107 C1 Univ E Anglia, Sch Biol Sci, Norwich NR4 7TJ, Norfolk, England.
3108 RP Emerson, BC, Univ E Anglia, Sch Biol Sci, Norwich NR4 7TJ, Norfolk,
3109 England.
3110 EM b.emerson@uea.ac.uk
3111 NR 8
3112 TC 0
3113 PU NATURE PUBLISHING GROUP
3114 PI LONDON
3115 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3116 SN 0028-0836
3117 J9 NATURE
3118 JI Nature
3119 PD NOV 3
3120 PY 2005
3121 VL 438
3122 IS 7064
3123 BP E2
3124 EP E2
3125 PG 1
3126 SC Multidisciplinary Sciences
3127 GA 979XS
3128 UT ISI:000232979000036
3129 ER
3130
3131 PT J
3132 AU Kashlinsky, A
3133 Arendt, RG
3134 Mather, J
3135 Moseley, SH
3136 TI Tracing the first stars with fluctuations of the cosmic infrared
3137 background
3138 SO NATURE
3139 LA English
3140 DT Article
3141 ID SPITZER-SPACE-TELESCOPE; PROBE WMAP OBSERVATIONS; ARRAY CAMERA IRAC;
3142 COBE DIRBE MAPS; 1ST STARS; EXPERIMENT SEARCH; MIDINFRARED
3143 OBSERVATIONS; HIGH-REDSHIFT; GALAXIES; MICRONS
3144 AB The deepest space- and ground-based observations find metal-enriched
3145 galaxies at cosmic times when the Universe was less than 1 Gyr old.
3146 These stellar populations had to be preceded by the metal-free first
3147 stars, known as 'population III'. Recent cosmic microwave background
3148 polarization measurements indicate that stars started forming early -
3149 when the Universe was <= 200 Myr old. It is now thought that population
3150 III stars were significantly more massive than the present metal-rich
3151 stellar populations. Although such sources will not be individually
3152 detectable by existing or planned telescopes, they would have produced
3153 significant cosmic infrared background radiation in the near-infrared,
3154 whose fluctuations reflect the conditions in the primordial density
3155 field. Here we report a measurement of diffuse flux fluctuations after
3156 removing foreground stars and galaxies. The anisotropies exceed the
3157 instrument noise and the more local foregrounds; they can be attributed
3158 to emission from population III stars, at an era dominated by these
3159 objects.
3160 C1 Observat Cosmol Lab, Greenbelt, MD 20771 USA.
3161 NASA, Goddard Space Flight Ctr, Greenbelt, MD 20771 USA.
3162 SSAI, Greenbelt, MD 20771 USA.
3163 RP Kashlinsky, A, Observat Cosmol Lab, Greenbelt, MD 20771 USA.
3164 EM kashlinsky@stars.gsfc.nasa.gov
3165 NR 49
3166 TC 1
3167 PU NATURE PUBLISHING GROUP
3168 PI LONDON
3169 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3170 SN 0028-0836
3171 J9 NATURE
3172 JI Nature
3173 PD NOV 3
3174 PY 2005
3175 VL 438
3176 IS 7064
3177 BP 45
3178 EP 50
3179 PG 6
3180 SC Multidisciplinary Sciences
3181 GA 979XS
3182 UT ISI:000232979000037
3183 ER
3184
3185 PT J
3186 AU Gravina, B
3187 Mellars, P
3188 Ramsey, CB
3189 TI Radiocarbon dating of interstratified Neanderthal and early modern
3190 human occupations at the Chatelperronian type-site
3191 SO NATURE
3192 LA English
3193 DT Article
3194 ID EUROPE; ICE; CALIBRATION; AURIGNACIAN; PROGRAM; RECORDS; OXFORD; AMS
3195 AB The question of the coexistence and potential interaction between the
3196 last Neanderthal and the earliest intrusive populations of anatomically
3197 modern humans in Europe has recently emerged as a topic of lively
3198 debate in the archaeological and anthropological literature. Here we
3199 report the results of radiocarbon accelerator dating for what has been
3200 reported as an interstratified sequence of late Neanderthal and early
3201 anatomically modern occupations at the French type-site of the
3202 Chatelperronian, the Grotte des Fees de Chatelperron, in east-central
3203 France. The radiocarbon measurements seem to provide the earliest
3204 secure dates for the presence of Aurignacian technology - and from
3205 this, we infer the presence of anatomically modern human populations -
3206 in France.
3207 C1 Univ Cambridge, Dept Archaeol, Cambridge CB2 3DZ, England.
3208 Univ Oxford, Oxford Radiocarbon Accelerator Unit, Oxford OX1 3QJ, England.
3209 RP Mellars, P, Univ Cambridge, Dept Archaeol, Downing St, Cambridge CB2
3210 3DZ, England.
3211 EM pam59@cam.ac.uk
3212 NR 46
3213 TC 0
3214 PU NATURE PUBLISHING GROUP
3215 PI LONDON
3216 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3217 SN 0028-0836
3218 J9 NATURE
3219 JI Nature
3220 PD NOV 3
3221 PY 2005
3222 VL 438
3223 IS 7064
3224 BP 51
3225 EP 56
3226 PG 6
3227 SC Multidisciplinary Sciences
3228 GA 979XS
3229 UT ISI:000232979000038
3230 ER
3231
3232 PT J
3233 AU Boule, JB
3234 Vega, LR
3235 Zakian, VA
3236 TI The yeast Pif1p helicase removes telomerase from telomeric DNA
3237 SO NATURE
3238 LA English
3239 DT Article
3240 ID SACCHAROMYCES-CEREVISIAE; SCHIZOSACCHAROMYCES-POMBE; NUCLEOPROTEIN
3241 FILAMENTS; CHROMOSOME ENDS; IN-VIVO; ELONGATION; IDENTIFICATION;
3242 DISRUPTION; SUBFAMILY; COMPLEX
3243 AB Telomeres are the physical ends of eukaryotic chromosomes. Genetic
3244 studies have established that the baker's yeast Pif1p DNA helicase is a
3245 negative regulator of telomerase, the specialized reverse transcriptase
3246 that maintains telomeric DNA, but the biochemical basis for this
3247 inhibition was unknown. Here we show that in vitro, Pif1p reduces the
3248 processivity of telomerase and releases telomerase from telomeric
3249 oligonucleotides. The released telomerase is enzymatically active
3250 because it is able to lengthen a challenger oligonucleotide. In vivo,
3251 overexpression of Pif1p reduces telomerase association with telomeres,
3252 whereas depleting cells of Pif1p increases the levels of telomere-bound
3253 Est1p, a telomerase subunit that is present on the telomere when
3254 telomerase is active. We propose that Pif1p helicase activity limits
3255 telomerase action both in vivo and in vitro by displacing active
3256 telomerase from DNA ends.
3257 C1 Princeton Univ, Dept Mol Biol, Princeton, NJ 08544 USA.
3258 RP Zakian, VA, Princeton Univ, Dept Mol Biol, Princeton, NJ 08544 USA.
3259 EM vzakian@molbio.princeton.edu
3260 NR 37
3261 TC 0
3262 PU NATURE PUBLISHING GROUP
3263 PI LONDON
3264 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3265 SN 0028-0836
3266 J9 NATURE
3267 JI Nature
3268 PD NOV 3
3269 PY 2005
3270 VL 438
3271 IS 7064
3272 BP 57
3273 EP 61
3274 PG 5
3275 SC Multidisciplinary Sciences
3276 GA 979XS
3277 UT ISI:000232979000039
3278 ER
3279
3280 PT J
3281 AU Shen, ZQ
3282 Lo, KY
3283 Liang, MC
3284 Ho, PTP
3285 Zhao, JH
3286 TI A size of similar to 1 AU for the radio source Sgr A* at the centre of
3287 the Milky Way
3288 SO NATURE
3289 LA English
3290 DT Article
3291 ID SUPERMASSIVE BLACK-HOLE; SAGITTARIUS-A; GALACTIC-CENTER; X-RAY; NUCLEI;
3292 MILLIMETER; SPECTRUM; MODELS
3293 AB Although it is widely accepted that most galaxies have supermassive
3294 black holes at their centres(1-3), concrete proof has proved elusive.
3295 Sagittarius A* (Sgr A*)(4), an extremely compact radio source at the
3296 centre of our Galaxy, is the best candidate for proof(5-7), because it
3297 is the closest. Previous very-long-baseline interferometry observations
3298 ( at 7 mm wavelength) reported that Sgr A* is similar to 2 astronomical
3299 units (AU) in size(8), but this is still larger than the 'shadow' ( a
3300 remarkably dim inner region encircled by a bright ring) that should
3301 arise from general relativistic effects near the event horizon of the
3302 black hole(9). Moreover, the measured size is wavelength dependent(10).
3303 Here we report a radio image of Sgr A* at a wavelength of 3.5 mm,
3304 demonstrating that its size is similar to 1 AU. When combined with the
3305 lower limit on its mass(11), the lower limit on the mass density is 6.5
3306 x 10(21) M-. pc(-3) (where M-. is the solar mass), which provides
3307 strong evidence that Sgr A* is a supermassive black hole. The power-law
3308 relationship between wavelength and intrinsic size ( size proportional
3309 to wavelength(1.09)) explicitly rules out explanations other than those
3310 emission models with stratified structure, which predict a smaller
3311 emitting region observed at a shorter radio wavelength.
3312 C1 Shanghai Astron Observ, Shanghai 200030, Peoples R China.
3313 Natl Radio Astron Observ, Charlottesville, VA 22903 USA.
3314 CALTECH, Div Geol & Planetary Sci, Pasadena, CA 91125 USA.
3315 Harvard Smithsonian Ctr Astrophys, Cambridge, MA 02138 USA.
3316 Acad Sinica, Inst Astron & Astrophys, Taipei 106, Taiwan.
3317 RP Shen, ZQ, Shanghai Astron Observ, 80 Nandan Rd, Shanghai 200030,
3318 Peoples R China.
3319 EM zshen@shao.ac.cn
3320 NR 29
3321 TC 1
3322 PU NATURE PUBLISHING GROUP
3323 PI LONDON
3324 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3325 SN 0028-0836
3326 J9 NATURE
3327 JI Nature
3328 PD NOV 3
3329 PY 2005
3330 VL 438
3331 IS 7064
3332 BP 62
3333 EP 64
3334 PG 3
3335 SC Multidisciplinary Sciences
3336 GA 979XS
3337 UT ISI:000232979000040
3338 ER
3339
3340 PT J
3341 AU Vlasov, YA
3342 O'Boyle, M
3343 Hamann, HF
3344 McNab, SJ
3345 TI Active control of slow light on a chip with photonic crystal waveguides
3346 SO NATURE
3347 LA English
3348 DT Article
3349 ID SILICON-ON-INSULATOR; THERMOOPTICAL SWITCH; ATOMIC MEDIUM; PULSES
3350 AB It is known that light can be slowed down in dispersive materials near
3351 resonances(1). Dramatic reduction of the light group velocity and even
3352 bringing light pulses to a complete halt - has been demonstrated
3353 recently in various atomic(2-5) and solid state systems(6-8), where the
3354 material absorption is cancelled via quantum optical coherent
3355 effects(3-5,7). Exploitation of slow light phenomena has potential for
3356 applications ranging from all-optical storage to all-optical
3357 switching(9,10). Existing schemes, however, are restricted to the
3358 narrow frequency range of the material resonance, which limits the
3359 operation frequency, maximum data rate and storage capacity(10).
3360 Moreover, the implementation of external lasers, low pressures and/or
3361 low temperatures prevents miniaturization and hinders practical
3362 applications. Here we experimentally demonstrate an over 300-fold
3363 reduction of the group velocity on a silicon chip via an ultra-compact
3364 photonic integrated circuit using low-loss silicon photonic crystal
3365 waveguides(11,12) that can support an optical mode with a submicrometre
3366 cross-section(13,14). In addition, we show fast (similar to 100 ns) and
3367 efficient (2 mW electric power) active control of the group velocity by
3368 localized heating of the photonic crystal waveguide with an integrated
3369 micro-heater.
3370 C1 IBM Corp, Thomas J Watson Res Ctr, Yorktown Hts, NY 10598 USA.
3371 RP Vlasov, YA, IBM Corp, Thomas J Watson Res Ctr, Yorktown Hts, NY 10598
3372 USA.
3373 EM yvlasov@us.ibm.com
3374 NR 28
3375 TC 0
3376 PU NATURE PUBLISHING GROUP
3377 PI LONDON
3378 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3379 SN 0028-0836
3380 J9 NATURE
3381 JI Nature
3382 PD NOV 3
3383 PY 2005
3384 VL 438
3385 IS 7064
3386 BP 65
3387 EP 69
3388 PG 5
3389 SC Multidisciplinary Sciences
3390 GA 979XS
3391 UT ISI:000232979000041
3392 ER
3393
3394 PT J
3395 AU Piana, S
3396 Reyhani, M
3397 Gale, JD
3398 TI Simulating micrometre-scale crystal growth from solution
3399 SO NATURE
3400 LA English
3401 DT Article
3402 ID UREA CRYSTALS; KINETICS; DISSOLUTION; MECHANISMS; SURFACES; WATER
3403 AB Understanding crystal growth is essential for controlling the
3404 crystallization used in industrial separation and purification
3405 processes. Because solids interact through their surfaces, crystal
3406 shape can influence both chemical and physical properties(1). The
3407 thermodynamic morphology can readily be predicted(2), but most particle
3408 shapes are actually controlled by the kinetics of the atomic growth
3409 processes through which assembly occurs(3). Here we study the urea -
3410 solvent interface at the nanometre scale and report kinetic Monte Carlo
3411 simulations of the micrometre- scale three-dimensional growth of urea
3412 crystals. These simulations accurately reproduce experimentally
3413 observed crystal growth. Unlike previous models of crystal growth(4-6),
3414 no assumption is made that the morphology can be constructed from the
3415 results for independently growing surfaces or from an a priori
3416 specification of surface defect concentration. This approach offers
3417 insights into the role of the solvent, the degree of supersaturation,
3418 and the contribution that extended defects ( such as screw
3419 dislocations) make to crystal growth. It also connects observations
3420 made at the nanometre scale, through in situ atomic force microscopy,
3421 with those made at the macroscopic level. If extended to include
3422 additives, the technique could lead to the computer-aided design of
3423 crystals.
3424 C1 Curtin Univ Technol, Dept Appl Chem, Nanochem Res Inst, Perth, WA 6845, Australia.
3425 RP Gale, JD, Curtin Univ Technol, Dept Appl Chem, Nanochem Res Inst, GPO
3426 Box U1987, Perth, WA 6845, Australia.
3427 EM J.Gale@curtin.edu.au
3428 NR 22
3429 TC 0
3430 PU NATURE PUBLISHING GROUP
3431 PI LONDON
3432 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3433 SN 0028-0836
3434 J9 NATURE
3435 JI Nature
3436 PD NOV 3
3437 PY 2005
3438 VL 438
3439 IS 7064
3440 BP 70
3441 EP 73
3442 PG 4
3443 SC Multidisciplinary Sciences
3444 GA 979XS
3445 UT ISI:000232979000042
3446 ER
3447
3448 PT J
3449 AU Church, JA
3450 White, NJ
3451 Arblaster, JM
3452 TI Significant decadal-scale impact of volcanic eruptions on sea level and
3453 ocean heat content
3454 SO NATURE
3455 LA English
3456 DT Article
3457 ID 20TH-CENTURY TEMPERATURE; ANTHROPOGENIC FORCINGS; CLIMATE SIMULATIONS;
3458 MODEL; RISE; ICE
3459 AB Ocean thermal expansion contributes significantly to sea-level
3460 variability and rise(1). However, observed decadal variability in ocean
3461 heat content(2,3) and sea level(4) has not been reproduced well in
3462 climate models(5). Aerosols injected into the stratosphere during
3463 volcanic eruptions scatter incoming solar radiation, and cause a rapid
3464 cooling of the atmosphere(6,7) and a reduction in rainfall(6,8,9,) as
3465 well as other changes in the climate system(7). Here we use
3466 observations of ocean heat content(2,3) and a set of climate
3467 simulations to show that large volcanic eruptions result in rapid
3468 reductions in ocean heat content and global mean sea level. For the Mt
3469 Pinatubo eruption, we estimate a reduction in ocean heat content of
3470 about 3 x 10(22) J and a global sea-level fall of about 5 mm. Over the
3471 three years following such an eruption, we estimate a decrease in
3472 evaporation of up to 0.1 mm d(-1), comparable to observed changes in
3473 mean land precipitation(6,8,9). The recovery of sea level following the
3474 Mt Pinatubo eruption in 1991 explains about half of the difference
3475 between the long-termrate of sea-level rise(4) of 1.8 mm yr(-1) ( for
3476 1950 - 2000), and the higher rate estimated for the more recent period
3477 where satellite altimeter data are available (1993 - 2000)(4,10).
3478 C1 CSIRO Marine & Atmospher Res, Hobart, Tas 7001, Australia.
3479 Antarctic Climate & Ecosyst Cooperat Res Ctr, Hobart, Tas 7001, Australia.
3480 Natl Ctr Atmospher Res, Boulder, CO 80307 USA.
3481 Bur Meteorol Res Ctr, Melbourne, Vic 3001, Australia.
3482 RP Church, JA, CSIRO Marine & Atmospher Res, GPO Box 1538, Hobart, Tas
3483 7001, Australia.
3484 EM John.Church@csiro.au
3485 NR 28
3486 TC 1
3487 PU NATURE PUBLISHING GROUP
3488 PI LONDON
3489 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3490 SN 0028-0836
3491 J9 NATURE
3492 JI Nature
3493 PD NOV 3
3494 PY 2005
3495 VL 438
3496 IS 7064
3497 BP 74
3498 EP 77
3499 PG 4
3500 SC Multidisciplinary Sciences
3501 GA 979XS
3502 UT ISI:000232979000043
3503 ER
3504
3505 PT J
3506 AU Unsworth, MJ
3507 Jones, AG
3508 Wei, W
3509 Marquis, G
3510 Gokarn, SG
3511 Spratt, JE
3512 CA INDEPTH-MT Team
3513 TI Crustal rheology of the Himalaya and Southern Tibet inferred from
3514 magnetotelluric data
3515 SO NATURE
3516 LA English
3517 DT Article
3518 ID EXPERIMENTAL DEFORMATION; MIDDLE CRUST; EVOLUTION; PLATEAU;
3519 CONSTRAINTS; COLLISION; GRANITE; CHANNEL; FLUIDS; FLOW
3520 AB The Cenozoic collision between the Indian and Asian continents formed
3521 the Tibetan plateau, beginning about 70 million years ago. Since this
3522 time, at least 1,400 km of convergence has been accommodated(1) by a
3523 combination of underthrusting of Indian(2) and Asian lithosphere,
3524 crustal shortening(3), horizontal extrusion(4) and lithospheric
3525 delamination(5). Rocks exposed in the Himalaya show evidence of crustal
3526 melting(1,6) and are thought to have been exhumed by rapid erosion and
3527 climatically forced crustal flow(7,8). Magnetotelluric data can be used
3528 to image subsurface electrical resistivity, a parameter sensitive to
3529 the presence of interconnected fluids in the host rock matrix, even at
3530 low volume fractions. Here we present magnetotelluric data from the
3531 Tibetan - Himalayan orogen from 77 degrees E to 92 degrees E, which
3532 show that low resistivity, interpreted as a partially molten layer, is
3533 present along at least 1,000 km of the southern margin of the Tibetan
3534 plateau. The inferred low viscosity of this layer is consistent with
3535 the development of climatically forced crustal flow in Southern Tibet.
3536 C1 Univ Alberta, Dept Phys, Edmonton, AB T6G 2J1, Canada.
3537 Dublin Inst Adv Studies, Sch Cosm Phys, Dublin 2, Ireland.
3538 China Univ Geosci, Minist Educ, Geodetect Lab, Beijing 100083, Peoples R China.
3539 Univ Strasbourg, EOST IPGS, EOST ULP, UMR 7516, F-67084 Strasbourg, France.
3540 Indian Inst Geomagnetism, Bombay 400005, Maharashtra, India.
3541 RP Unsworth, MJ, Univ Alberta, Dept Phys, Edmonton, AB T6G 2J1, Canada.
3542 EM unsworth@phys.Ualberta.ca
3543 NR 30
3544 TC 0
3545 PU NATURE PUBLISHING GROUP
3546 PI LONDON
3547 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3548 SN 0028-0836
3549 J9 NATURE
3550 JI Nature
3551 PD NOV 3
3552 PY 2005
3553 VL 438
3554 IS 7064
3555 BP 78
3556 EP 81
3557 PG 4
3558 SC Multidisciplinary Sciences
3559 GA 979XS
3560 UT ISI:000232979000044
3561 ER
3562
3563 PT J
3564 AU Giovannoni, SJ
3565 Bibbs, L
3566 Cho, JC
3567 Stapels, MD
3568 Desiderio, R
3569 Vergin, KL
3570 Rappe, MS
3571 Laney, S
3572 Wilhelm, LJ
3573 Tripp, HJ
3574 Mathur, EJ
3575 Barofsky, DF
3576 TI Proteorhodopsin in the ubiquitous marine bacterium SAR11
3577 SO NATURE
3578 LA English
3579 DT Article
3580 ID OCEAN; SEA; IDENTIFICATION; PHOTOTROPHY; GENES; CLADE
3581 AB Proteorhodopsins are light-dependent proton pumps that are predicted to
3582 have an important role in the ecology of the oceans by supplying energy
3583 for microbial metabolism(1,2). Proteorhodopsin genes were first
3584 discovered through the cloning and sequencing of large genomic DNA
3585 fragments from seawater(1). They were later shown to be widely
3586 distributed, phylogenetically diverse, and active in the oceans(3-7).
3587 Proteorhodopsin genes have not been found in cultured bacteria, and on
3588 the basis of environmental sequence data, it has not yet been possible
3589 to reconstruct the genomes of uncultured bacterial strains that have
3590 proteorhodopsin genes. Although the metabolic effect of
3591 proteorhodopsins is uncertain, they are thought to function in cells
3592 for which the primary mode of metabolism is the heterotrophic
3593 assimilation of dissolved organic carbon. Here we report that SAR11
3594 strain HTCC1062 ('Pelagibacter ubique')(8), the first cultivated member
3595 of the extraordinarily abundant SAR11 clade, expresses a
3596 proteorhodopsin gene when cultured in autoclaved seawater and in its
3597 natural environment, the ocean. The Pelagibacter proteorhodopsin
3598 functions as a light-dependent proton pump. The gene is expressed by
3599 cells grown in either diurnal light or in darkness, and there is no
3600 difference between the growth rates or cell yields of cultures grown in
3601 light or darkness.
3602 C1 Oregon State Univ, Dept Microbiol, Corvallis, OR 97331 USA.
3603 Oregon State Univ, Dept Chem, Corvallis, OR 97331 USA.
3604 Oregon State Univ, Coll Ocean & Atmospher Sci, Corvallis, OR 97331 USA.
3605 Diversa Corp, San Diego, CA 92121 USA.
3606 RP Giovannoni, SJ, Oregon State Univ, Dept Microbiol, Corvallis, OR 97331
3607 USA.
3608 EM steve.giovannoni@oregonstate.edu
3609 NR 21
3610 TC 0
3611 PU NATURE PUBLISHING GROUP
3612 PI LONDON
3613 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3614 SN 0028-0836
3615 J9 NATURE
3616 JI Nature
3617 PD NOV 3
3618 PY 2005
3619 VL 438
3620 IS 7064
3621 BP 82
3622 EP 85
3623 PG 4
3624 SC Multidisciplinary Sciences
3625 GA 979XS
3626 UT ISI:000232979000045
3627 ER
3628
3629 PT J
3630 AU Lindell, D
3631 Jaffe, JD
3632 Johnson, ZI
3633 Church, GM
3634 Chisholm, SW
3635 TI Photosynthesis genes in marine viruses yield proteins during host
3636 infection
3637 SO NATURE
3638 LA English
3639 DT Article
3640 ID SYNECHOCOCCUS STRAINS; PROCHLOROCOCCUS; GENOME; METABOLISM; PHAGE; LIGHT
3641 AB Cyanobacteria, and the viruses ( phages) that infect them, are
3642 significant contributors to the oceanic 'gene pool'(1,2). This pool is
3643 dynamic, and the transfer of genetic material between hosts and their
3644 phages(3-6) probably influences the genetic and functional diversity of
3645 both. For example, photosynthesis genes of cyanobacterial origin have
3646 been found in phages that infect Prochlorococcus(5,7) and
3647 Synechococcus(8,9), the numerically dominant phototrophs in ocean
3648 ecosystems. These genes include psbA, which encodes the photosystem II
3649 core reaction centre protein D1, and high-light-inducible ( hli) genes.
3650 Here we show that phage psbA and hli genes are expressed during
3651 infection of Prochlorococcus and are cotranscribed with essential phage
3652 capsid genes, and that the amount of phage D1 protein increases
3653 steadily over the infective period. We also show that the expression of
3654 host photosynthesis genes declines over the course of infection and
3655 that replication of the phage genome is a function of photosynthesis.
3656 We thus propose that the phage genes are functional in photosynthesis
3657 and that they may be increasing phage fitness by supplementing the host
3658 production of these proteins.
3659 C1 MIT, Dept Civil & Environm Engn, Cambridge, MA 02139 USA.
3660 Harvard Univ, Sch Med, Dept Genet, Boston, MA 02115 USA.
3661 MIT, Dept Biol, Cambridge, MA 02139 USA.
3662 RP Chisholm, SW, MIT, Dept Civil & Environm Engn, 77 Massachusetts Ave,
3663 Cambridge, MA 02139 USA.
3664 EM chisholm@mit.edu
3665 NR 29
3666 TC 0
3667 PU NATURE PUBLISHING GROUP
3668 PI LONDON
3669 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3670 SN 0028-0836
3671 J9 NATURE
3672 JI Nature
3673 PD NOV 3
3674 PY 2005
3675 VL 438
3676 IS 7064
3677 BP 86
3678 EP 89
3679 PG 4
3680 SC Multidisciplinary Sciences
3681 GA 979XS
3682 UT ISI:000232979000046
3683 ER
3684
3685 PT J
3686 AU Croft, MT
3687 Lawrence, AD
3688 Raux-Deery, E
3689 Warren, MJ
3690 Smith, AG
3691 TI Algae acquire vitamin B-12 through a symbiotic relationship with
3692 bacteria
3693 SO NATURE
3694 LA English
3695 DT Article
3696 ID COBALAMIN VITAMIN-B-12; ESCHERICHIA-COLI; METABOLISM; REDUCTASE;
3697 EVOLUTION; FOLATE; GENOME
3698 AB Vitamin B-12 ( cobalamin) was identified nearly 80 years ago as the
3699 anti- pernicious anaemia factor in liver(1), and its importance in
3700 human health and disease has resulted in much work on its uptake(2),
3701 cellular transport(3) and utilization(4). Plants do not contain
3702 cobalamin because they have no cobalamin-dependent enzymes.
3703 Deficiencies are therefore common in strict vegetarians(5), and in the
3704 elderly, who are susceptible to an autoimmune disorder that prevents
3705 its efficient uptake(6). In contrast, many algae are rich in vitamin
3706 B-12, with some species, such as Porphyra yezoensis (Nori), containing
3707 as much cobalamin as liver(7). Despite this, the role of the cofactor
3708 in algal metabolism remains unknown, as does the source of the vitamin
3709 for these organisms. A survey of 326 algal species revealed that 171
3710 species require exogenous vitamin B-12 for growth, implying that more
3711 than half of the algal kingdom are cobalamin auxotrophs. Here we show
3712 that the role of vitamin B-12 in algal metabolism is primarily as a
3713 cofactor for vitamin B-12-dependent methionine synthase, and that
3714 cobalamin auxotrophy has arisen numerous times throughout evolution,
3715 probably owing to the loss of the vitamin B-12-independent form of the
3716 enzyme. The source of cobalamin seems to be bacteria, indicating an
3717 important and unsuspected symbiosis.
3718 C1 Univ Cambridge, Dept Plant Sci, Cambridge CB2 3EA, England.
3719 Univ Kent, Dept Biosci, Canterbury CT2 7NJ, Kent, England.
3720 RP Smith, AG, Univ Cambridge, Dept Plant Sci, Cambridge CB2 3EA, England.
3721 EM as25@cam.ac.uk
3722 NR 28
3723 TC 1
3724 PU NATURE PUBLISHING GROUP
3725 PI LONDON
3726 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3727 SN 0028-0836
3728 J9 NATURE
3729 JI Nature
3730 PD NOV 3
3731 PY 2005
3732 VL 438
3733 IS 7064
3734 BP 90
3735 EP 93
3736 PG 4
3737 SC Multidisciplinary Sciences
3738 GA 979XS
3739 UT ISI:000232979000047
3740 ER
3741
3742 PT J
3743 AU Brunet, I
3744 Weinl, C
3745 Piper, M
3746 Trembleau, A
3747 Volovitch, M
3748 Harris, W
3749 Prochiantz, A
3750 Holt, C
3751 TI The transcription factor Engrailed-2 guides retinal axons
3752 SO NATURE
3753 LA English
3754 DT Article
3755 ID GANGLION-CELL AXONS; OPTIC TECTUM; TYROSINE KINASES; GROWTH CONES;
3756 EXPRESSION; PROTEIN; TRANSLATION; HOMEOPROTEIN; GUIDANCE; LIGANDS
3757 AB Engrailed-2 (En-2), a homeodomain transcription factor, is expressed in
3758 a caudal-to-rostral gradient in the developing midbrain, where it has
3759 an instructive role in patterning the optic tectum - the target of
3760 topographic retinal input(1,2). In addition to its well-known role in
3761 regulating gene expression through its DNA-binding domain, En-2 may
3762 also have a role in cell - cell communication, as suggested by the
3763 presence of other domains involved in nuclear export, secretion and
3764 internalization(3). Consistent with this possibility, here we report
3765 that an external gradient of En-2 protein strongly repels growth cones
3766 of Xenopus axons originating from the temporal retina and, conversely,
3767 attracts nasal axons. Fluorescently tagged En-2 accumulates inside
3768 growth cones within minutes of exposure, and a mutant form of the
3769 protein that cannot enter cells fails to elicit axon turning. Once
3770 internalized, En-2 stimulates the rapid phosphorylation of proteins
3771 involved in translation initiation and triggers the local synthesis of
3772 new proteins. Furthermore, the turning responses of both nasal and
3773 temporal growth cones in the presence of En-2 are blocked by inhibitors
3774 of protein synthesis. The differential guidance of nasal and temporal
3775 axons reported here suggests that En-2 may participate directly in
3776 topographic map formation in the vertebrate visual system.
3777 C1 Univ Cambridge, Dept Anat, Cambridge CB2 3DY, England.
3778 Ecole Normale Super, CNRS, UMR 8542, F-75230 Paris, France.
3779 RP Holt, C, Univ Cambridge, Dept Anat, Downing St, Cambridge CB2 3DY,
3780 England.
3781 EM prochian@biologie.ens.fr
3782 ceh@mole.bio.cam.ac.uk
3783 NR 27
3784 TC 0
3785 PU NATURE PUBLISHING GROUP
3786 PI LONDON
3787 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3788 SN 0028-0836
3789 J9 NATURE
3790 JI Nature
3791 PD NOV 3
3792 PY 2005
3793 VL 438
3794 IS 7064
3795 BP 94
3796 EP 98
3797 PG 5
3798 SC Multidisciplinary Sciences
3799 GA 979XS
3800 UT ISI:000232979000048
3801 ER
3802
3803 PT J
3804 AU Veazey, RS
3805 Klasse, PJ
3806 Schader, SM
3807 Hu, QX
3808 Ketas, TJ
3809 Lu, M
3810 Marx, PA
3811 Dufour, J
3812 Colonno, RJ
3813 Shattock, RJ
3814 Springer, MS
3815 Moore, JP
3816 TI Protection of macaques from vaginal SHIV challenge by vaginally
3817 delivered inhibitors of virus-cell fusion
3818 SO NATURE
3819 LA English
3820 DT Article
3821 ID HUMAN-IMMUNODEFICIENCY-VIRUS; HIV-1 INFECTION; ENTRY INHIBITORS; CCR5
3822 INHIBITOR; TRANSMISSION; TYPE-1; ANTAGONISTS; ATTACHMENT; PREVENTION;
3823 DISCOVERY
3824 AB Human immunodeficiency virus type 1 (HIV-1) continues to spread,
3825 principally by heterosexual sex, but no vaccine is available(1). Hence,
3826 alternative prevention methods are needed to supplement educational and
3827 behavioural-modification programmes. One such approach is a vaginal
3828 microbicide: the application of inhibitory compounds before
3829 intercourse(2). Here, we have evaluated the microbicide concept using
3830 the rhesus macaque 'high dose'vaginal transmission model with a
3831 CCR5-receptor-using simian - human immunodeficiency virus (SHIV-162P3)
3832 and three compounds that inhibit different stages of the virus - cell
3833 attachment and entry process. These compounds are BMS-378806, a small
3834 molecule that binds the viral gp120 glycoprotein and prevents its
3835 attachment to the CD4 and CCR5 receptors(3,4), CMPD167, a small
3836 molecule that binds to CCR5 to inhibit gp120 association(5), and C52L,
3837 a bacterially expressed peptide inhibitor of gp41-mediated fusion(6).
3838 In vitro, all three compounds inhibit infection of T cells and cervical
3839 tissue explants, and C52L acts synergistically with CMPD167 or
3840 BMS-378806 to inhibit infection of cell lines. In vivo, significant
3841 protection was achieved using each compound alone and in combinations.
3842 CMPD167 and BMS-378806 were protective even when applied 6 h before
3843 challenge.
3844 C1 Cornell Univ, Weill Med Coll, Dept Microbiol & Immunol, New York, NY 10021 USA.
3845 Tulane Natl Primate Res Ctr, Covington, LA 70433 USA.
3846 Univ London, St Georges, London SW17 0RE, England.
3847 Cornell Univ, Weill Med Coll, Dept Biochem, New York, NY 10021 USA.
3848 Bristol Myers Squibb Co, Inst Pharmaceut, Wallingford, CT 06492 USA.
3849 Merck Res Labs, Rahway, NJ 07065 USA.
3850 RP Moore, JP, Cornell Univ, Weill Med Coll, Dept Microbiol & Immunol, New
3851 York, NY 10021 USA.
3852 EM jpm2003@med.cornell.edu
3853 NR 30
3854 TC 0
3855 PU NATURE PUBLISHING GROUP
3856 PI LONDON
3857 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3858 SN 0028-0836
3859 J9 NATURE
3860 JI Nature
3861 PD NOV 3
3862 PY 2005
3863 VL 438
3864 IS 7064
3865 BP 99
3866 EP 102
3867 PG 4
3868 SC Multidisciplinary Sciences
3869 GA 979XS
3870 UT ISI:000232979000049
3871 ER
3872
3873 PT J
3874 AU LaCount, DJ
3875 Vignali, M
3876 Chettier, R
3877 Phansalkar, A
3878 Bell, R
3879 Hesselberth, JR
3880 Schoenfeld, LW
3881 Ota, I
3882 Sahasrabudhe, S
3883 Kurschner, C
3884 Fields, S
3885 Hughes, RE
3886 TI A protein interaction network of the malaria parasite Plasmodium
3887 falciparum
3888 SO NATURE
3889 LA English
3890 DT Article
3891 ID LIFE-CYCLE; BIOLOGY; YEAST; GENOMICS; COMPLEX; ACETYLTRANSFERASE;
3892 ORGANIZATION; ERYTHROCYTE; EXPRESSION; VIRULENCE
3893 AB Plasmodium falciparum causes the most severe form of malaria and kills
3894 up to 2.7 million people annually(1). Despite the global importance of
3895 P. falciparum, the vast majority of its proteins have not been
3896 characterized experimentally. Here we identify P. falciparum protein -
3897 protein interactions using a high-throughput version of the yeast
3898 two-hybrid assay that circumvents the difficulties in expressing P.
3899 falciparum proteins in Saccharomyces cerevisiae. From more than 32,000
3900 yeast two-hybrid screens with P. falciparum protein fragments, we
3901 identified 2,846 unique interactions, most of which include at least
3902 one previously uncharacterized protein. Informatic analyses of network
3903 connectivity, coexpression of the genes encoding interacting fragments,
3904 and enrichment of specific protein domains or Gene Ontology
3905 annotations(2) were used to identify groups of interacting proteins,
3906 including one implicated in chromatin modification, transcription,
3907 messenger RNA stability and ubiquitination, and another implicated in
3908 the invasion of host cells. These data constitute the first extensive
3909 description of the protein interaction network for this important human
3910 pathogen.
3911 C1 Univ Washington, Howard Hughes Med Inst, Seattle, WA 98195 USA.
3912 Univ Washington, Dept Genome Sci, Seattle, WA 98195 USA.
3913 Univ Washington, Dept Med, Seattle, WA 98195 USA.
3914 Prolexys Pharmaceut Inc, Salt Lake City, UT 84111 USA.
3915 RP Fields, S, Univ Washington, Howard Hughes Med Inst, Box 357730,
3916 Seattle, WA 98195 USA.
3917 EM fields@u.washington.edu
3918 rhughes@buckinstitute.org
3919 NR 30
3920 TC 0
3921 PU NATURE PUBLISHING GROUP
3922 PI LONDON
3923 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3924 SN 0028-0836
3925 J9 NATURE
3926 JI Nature
3927 PD NOV 3
3928 PY 2005
3929 VL 438
3930 IS 7064
3931 BP 103
3932 EP 107
3933 PG 5
3934 SC Multidisciplinary Sciences
3935 GA 979XS
3936 UT ISI:000232979000050
3937 ER
3938
3939 PT J
3940 AU Suthram, S
3941 Sittler, T
3942 Ideker, T
3943 TI The Plasmodium protein network diverges from those of other eukaryotes
3944 SO NATURE
3945 LA English
3946 DT Article
3947 ID SACCHAROMYCES-CEREVISIAE; INTERACTION MAP; LIFE-CYCLE; FALCIPARUM;
3948 MALARIA; ENDOCYTOSIS; ANNOTATION; BIOLOGY; GENOMES; YEAST
3949 AB Plasmodium falciparum is the pathogen responsible for over 90% of human
3950 deaths from malaria(1). Therefore, it has been the focus of a
3951 considerable research initiative, involving the complete DNA sequencing
3952 of the genome(2), large-scale expression analyses(3,4), and protein
3953 characterization of its life-cycle stages(5). The Plasmodium genome
3954 sequence is relatively distant from those of most other eukaryotes,
3955 with more than 60% of the 5,334 encoded proteins lacking any notable
3956 sequence similarity to other organisms(2). To systematically elucidate
3957 functional relationships among these proteins, a large two-hybrid study
3958 has recently mapped a network of 2,846 interactions involving 1,312
3959 proteins within Plasmodium6. This network adds to a growing collection
3960 of available interaction maps for a number of different organisms, and
3961 raises questions about whether the divergence of Plasmodium at the
3962 sequence level is reflected in the configuration of its protein
3963 network. Here we examine the degree of conservation between the
3964 Plasmodium protein network and those of model organisms. Although we
3965 find 29 highly connected protein complexes specific to the network of
3966 the pathogen, we find very little conservation with complexes observed
3967 in other organisms ( three in yeast, none in the others). Overall, the
3968 patterns of protein interaction in Plasmodium, like its genome
3969 sequence, set it apart from other species.
3970 C1 Univ Calif San Diego, Bioinformat Program, La Jolla, CA 92093 USA.
3971 Univ Calif San Diego, Dept Bioengn, La Jolla, CA 92093 USA.
3972 RP Suthram, S, Univ Calif San Diego, Bioinformat Program, La Jolla, CA
3973 92093 USA.
3974 EM ssuthram@ucsd.edu
3975 NR 30
3976 TC 0
3977 PU NATURE PUBLISHING GROUP
3978 PI LONDON
3979 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
3980 SN 0028-0836
3981 J9 NATURE
3982 JI Nature
3983 PD NOV 3
3984 PY 2005
3985 VL 438
3986 IS 7064
3987 BP 108
3988 EP 112
3989 PG 5
3990 SC Multidisciplinary Sciences
3991 GA 979XS
3992 UT ISI:000232979000051
3993 ER
3994
3995 PT J
3996 AU Lipford, JR
3997 Smith, GT
3998 Chi, Y
3999 Deshaies, RJ
4000 TI A putative stimulatory role for activator turnover in gene expression
4001 SO NATURE
4002 LA English
4003 DT Article
4004 ID TRANSCRIPTION FACTOR GCN4; UBIQUITIN-DEPENDENT PROTEOLYSIS; PROTEASOME
4005 INHIBITION; YEAST; DEGRADATION; KINASE; RECRUITMENT; STRESS; GAL4
4006 AB The ubiquitin - proteasome system (UPS) promotes the destruction of
4007 target proteins by attaching to them a ubiquitin chain that is
4008 recognized by the 26S proteasome(1). The UPS influences most cellular
4009 processes, and its targets include transcriptional activators that are
4010 primary determinants of gene expression. Emerging evidence indicates
4011 that non-proteolytic functions of the UPS might stimulate
4012 transcriptional activity(2,3). Here we show that the proteolysis of
4013 some transcriptional activators by the UPS can stimulate their
4014 function. We focused on the role of UPS-dependent proteolysis in the
4015 function of inducible transcriptional activators in yeast, and found
4016 that inhibition of the proteasome(4) reduced transcription of the
4017 targets of the activators Gcn4, Gal4 and Ino2/4. In addition, mutations
4018 in SCFCdc4, the ubiquitin ligase for Gcn4 (ref. 5), or mutations in
4019 ubiquitin that prevent degradation(6), also impaired the transcription
4020 of Gcn4 targets. These transcriptional defects were manifested despite
4021 the enhanced abundance of Gcn4 on cognate promoters. Proteasome
4022 inhibition also decreased the association of RNA polymerase II with
4023 Gcn4, Gal4 and Ino2/4 targets, as did mutations in SCFCdc4 for Gcn4
4024 targets. Expression of a stable phospho-site mutant of Gcn4 ( ref. 7)
4025 or disruption of the kinases that target Gcn4 for turnover(5,7)
4026 alleviated the sensitivity of Gcn4 activity to defects in the UPS.
4027 C1 CALTECH, Div Biol, Howard Hughes Med Inst, Pasadena, CA 91125 USA.
4028 RP Deshaies, RJ, CALTECH, Div Biol, Howard Hughes Med Inst, MC 156-29,1200
4029 E Calif Blvd, Pasadena, CA 91125 USA.
4030 EM deshaies@caltech.edu
4031 NR 27
4032 TC 0
4033 PU NATURE PUBLISHING GROUP
4034 PI LONDON
4035 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4036 SN 0028-0836
4037 J9 NATURE
4038 JI Nature
4039 PD NOV 3
4040 PY 2005
4041 VL 438
4042 IS 7064
4043 BP 113
4044 EP 116
4045 PG 4
4046 SC Multidisciplinary Sciences
4047 GA 979XS
4048 UT ISI:000232979000052
4049 ER
4050
4051 PT J
4052 AU Eisenmesser, EZ
4053 Millet, O
4054 Labeikovsky, W
4055 Korzhnev, DM
4056 Wolf-Watz, M
4057 Bosco, DA
4058 Skalicky, JJ
4059 Kay, LE
4060 Kern, D
4061 TI Intrinsic dynamics of an enzyme underlies catalysis
4062 SO NATURE
4063 LA English
4064 DT Article
4065 ID CIS-TRANS-ISOMERIZATION; DIHYDROFOLATE-REDUCTASE; TRIOSEPHOSPHATE
4066 ISOMERASE; CHEMICAL-EXCHANGE; NMR-SPECTROSCOPY; PROTEIN DYNAMICS;
4067 CYCLOPHILIN-A; LOOP MOTION; FLEXIBILITY; STATES
4068 AB A unique feature of chemical catalysis mediated by enzymes is that the
4069 catalytically reactive atoms are embedded within a folded protein.
4070 Although current understanding of enzyme function has been focused on
4071 the chemical reactions and static three-dimensional structures, the
4072 dynamic nature of proteins has been proposed to have a function in
4073 catalysis(1-5). The concept of conformational substates has been
4074 described(6); however, the challenge is to unravel the intimate linkage
4075 between protein flexibility and enzymatic function. Here we show that
4076 the intrinsic plasticity of the protein is a key characteristic of
4077 catalysis. The dynamics of the prolyl cis - trans isomerase cyclophilin
4078 A ( CypA) in its substrate-free state and during catalysis were
4079 characterized with NMR relaxation experiments. The characteristic
4080 enzyme motions detected during catalysis are already present in the
4081 free enzyme with frequencies corresponding to the catalytic turnover
4082 rates. This correlation suggests that the protein motions necessary for
4083 catalysis are an intrinsic property of the enzyme and may even limit
4084 the overall turnover rate. Motion is localized not only to the active
4085 site but also to a wider dynamic network. Whereas coupled networks in
4086 proteins have been proposed previously(3,7-10), we experimentally
4087 measured the collective nature of motions with the use of mutant forms
4088 of CypA. We propose that the pre-existence of collective dynamics in
4089 enzymes before catalysis is a common feature of biocatalysts and that
4090 proteins have evolved under synergistic pressure between structure and
4091 dynamics.
4092 C1 Brandeis Univ, Howard Hughes Med Inst, Dept Biochem, Waltham, MA 02454 USA.
4093 Univ Toronto, Dept Med Genet, Toronto, ON M5S 1A8, Canada.
4094 Univ Toronto, Dept Biochem, Toronto, ON M5S 1A8, Canada.
4095 Univ Toronto, Dept Chem, Toronto, ON M5S 1A8, Canada.
4096 Florida State Univ, Natl High Magnet Field Lab, Tallahassee, FL 32310 USA.
4097 RP Kern, D, Brandeis Univ, Howard Hughes Med Inst, Dept Biochem, Waltham,
4098 MA 02454 USA.
4099 EM dkern@brandeis.edu
4100 NR 30
4101 TC 1
4102 PU NATURE PUBLISHING GROUP
4103 PI LONDON
4104 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4105 SN 0028-0836
4106 J9 NATURE
4107 JI Nature
4108 PD NOV 3
4109 PY 2005
4110 VL 438
4111 IS 7064
4112 BP 117
4113 EP 121
4114 PG 5
4115 SC Multidisciplinary Sciences
4116 GA 979XS
4117 UT ISI:000232979000053
4118 ER
4119
4120 PT J
4121 AU Tripati, A
4122 Backman, J
4123 Elderfield, H
4124 Ferretti, P
4125 TI Eocene bipolar glaciation associated with global carbon cycle changes
4126 (vol 436, pg 341, 2005)
4127 SO NATURE
4128 LA English
4129 DT Correction
4130 NR 3
4131 TC 0
4132 PU NATURE PUBLISHING GROUP
4133 PI LONDON
4134 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4135 SN 0028-0836
4136 J9 NATURE
4137 JI Nature
4138 PD NOV 3
4139 PY 2005
4140 VL 438
4141 IS 7064
4142 BP 122
4143 EP 122
4144 PG 1
4145 SC Multidisciplinary Sciences
4146 GA 979XS
4147 UT ISI:000232979000054
4148 ER
4149
4150 PT J
4151 AU Arrigo, KR
4152 TI Marine microorganisms and global nutrient cycles (vol 437, pg 349, 2005)
4153 SO NATURE
4154 LA English
4155 DT Correction
4156 NR 1
4157 TC 0
4158 PU NATURE PUBLISHING GROUP
4159 PI LONDON
4160 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4161 SN 0028-0836
4162 J9 NATURE
4163 JI Nature
4164 PD NOV 3
4165 PY 2005
4166 VL 438
4167 IS 7064
4168 BP 122
4169 EP 122
4170 PG 1
4171 SC Multidisciplinary Sciences
4172 GA 979XS
4173 UT ISI:000232979000055
4174 ER
4175
4176 PT J
4177 AU Seller-Mason, S
4178 TI Shopping - Place your bets and buy into the future.
4179 SO NATURE
4180 LA English
4181 DT Editorial Material
4182 NR 0
4183 TC 0
4184 PU NATURE PUBLISHING GROUP
4185 PI LONDON
4186 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4187 SN 0028-0836
4188 J9 NATURE
4189 JI Nature
4190 PD NOV 3
4191 PY 2005
4192 VL 438
4193 IS 7064
4194 BP 128
4195 EP 128
4196 PG 1
4197 SC Multidisciplinary Sciences
4198 GA 979XS
4199 UT ISI:000232979000056
4200 ER
4201
4202 PT J
4203 AU [Anon]
4204 TI Waking up to the importance of sleep
4205 SO NATURE
4206 LA English
4207 DT Editorial Material
4208 NR 0
4209 TC 0
4210 PU NATURE PUBLISHING GROUP
4211 PI LONDON
4212 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4213 SN 0028-0836
4214 J9 NATURE
4215 JI Nature
4216 PD OCT 27
4217 PY 2005
4218 VL 437
4219 IS 7063
4220 BP 1207
4221 EP 1207
4222 PG 1
4223 SC Multidisciplinary Sciences
4224 GA 977UQ
4225 UT ISI:000232829100001
4226 ER
4227
4228 PT J
4229 AU [Anon]
4230 TI Is the city safe?
4231 SO NATURE
4232 LA English
4233 DT Editorial Material
4234 NR 0
4235 TC 0
4236 PU NATURE PUBLISHING GROUP
4237 PI LONDON
4238 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4239 SN 0028-0836
4240 J9 NATURE
4241 JI Nature
4242 PD OCT 27
4243 PY 2005
4244 VL 437
4245 IS 7063
4246 BP 1207
4247 EP 1208
4248 PG 2
4249 SC Multidisciplinary Sciences
4250 GA 977UQ
4251 UT ISI:000232829100002
4252 ER
4253
4254 PT J
4255 AU [Anon]
4256 TI Free tips
4257 SO NATURE
4258 LA English
4259 DT Editorial Material
4260 NR 0
4261 TC 0
4262 PU NATURE PUBLISHING GROUP
4263 PI LONDON
4264 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4265 SN 0028-0836
4266 J9 NATURE
4267 JI Nature
4268 PD OCT 27
4269 PY 2005
4270 VL 437
4271 IS 7063
4272 BP 1208
4273 EP 1208
4274 PG 1
4275 SC Multidisciplinary Sciences
4276 GA 977UQ
4277 UT ISI:000232829100003
4278 ER
4279
4280 PT J
4281 AU Simonite, T
4282 TI Migration threatens to send flu south
4283 SO NATURE
4284 LA English
4285 DT News Item
4286 NR 0
4287 TC 0
4288 PU NATURE PUBLISHING GROUP
4289 PI LONDON
4290 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4291 SN 0028-0836
4292 J9 NATURE
4293 JI Nature
4294 PD OCT 27
4295 PY 2005
4296 VL 437
4297 IS 7063
4298 BP 1212
4299 EP 1213
4300 PG 2
4301 SC Multidisciplinary Sciences
4302 GA 977UQ
4303 UT ISI:000232829100004
4304 ER
4305
4306 PT J
4307 AU Butler, D
4308 TI Ornithologists on the front line
4309 SO NATURE
4310 LA English
4311 DT News Item
4312 NR 0
4313 TC 0
4314 PU NATURE PUBLISHING GROUP
4315 PI LONDON
4316 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4317 SN 0028-0836
4318 J9 NATURE
4319 JI Nature
4320 PD OCT 27
4321 PY 2005
4322 VL 437
4323 IS 7063
4324 BP 1212
4325 EP 1213
4326 PG 2
4327 SC Multidisciplinary Sciences
4328 GA 977UQ
4329 UT ISI:000232829100005
4330 ER
4331
4332 PT J
4333 AU Check, E
4334 TI Trial aims to measure social effects of choosing babies' sex
4335 SO NATURE
4336 LA English
4337 DT News Item
4338 NR 0
4339 TC 0
4340 PU NATURE PUBLISHING GROUP
4341 PI LONDON
4342 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4343 SN 0028-0836
4344 J9 NATURE
4345 JI Nature
4346 PD OCT 27
4347 PY 2005
4348 VL 437
4349 IS 7063
4350 BP 1214
4351 EP 1215
4352 PG 2
4353 SC Multidisciplinary Sciences
4354 GA 977UQ
4355 UT ISI:000232829100006
4356 ER
4357
4358 PT J
4359 AU Abbott, A
4360 TI Europe revamps visa rules to attract world's best minds
4361 SO NATURE
4362 LA English
4363 DT News Item
4364 NR 0
4365 TC 0
4366 PU NATURE PUBLISHING GROUP
4367 PI LONDON
4368 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4369 SN 0028-0836
4370 J9 NATURE
4371 JI Nature
4372 PD OCT 27
4373 PY 2005
4374 VL 437
4375 IS 7063
4376 BP 1215
4377 EP 1215
4378 PG 1
4379 SC Multidisciplinary Sciences
4380 GA 977UQ
4381 UT ISI:000232829100007
4382 ER
4383
4384 PT J
4385 AU Marris, E
4386 TI Advisers knock Katrina health tests
4387 SO NATURE
4388 LA English
4389 DT News Item
4390 NR 0
4391 TC 0
4392 PU NATURE PUBLISHING GROUP
4393 PI LONDON
4394 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4395 SN 0028-0836
4396 J9 NATURE
4397 JI Nature
4398 PD OCT 27
4399 PY 2005
4400 VL 437
4401 IS 7063
4402 BP 1216
4403 EP 1217
4404 PG 2
4405 SC Multidisciplinary Sciences
4406 GA 977UQ
4407 UT ISI:000232829100008
4408 ER
4409
4410 PT J
4411 AU Cherry, M
4412 TI Ministers agree to act on warnings of soaring temperatures in Africa
4413 SO NATURE
4414 LA English
4415 DT News Item
4416 NR 0
4417 TC 0
4418 PU NATURE PUBLISHING GROUP
4419 PI LONDON
4420 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4421 SN 0028-0836
4422 J9 NATURE
4423 JI Nature
4424 PD OCT 27
4425 PY 2005
4426 VL 437
4427 IS 7063
4428 BP 1217
4429 EP 1217
4430 PG 1
4431 SC Multidisciplinary Sciences
4432 GA 977UQ
4433 UT ISI:000232829100009
4434 ER
4435
4436 PT J
4437 AU [Anon]
4438 TI Graphic detail: Twelve years of nuclear traffic
4439 SO NATURE
4440 LA English
4441 DT News Item
4442 NR 0
4443 TC 0
4444 PU NATURE PUBLISHING GROUP
4445 PI LONDON
4446 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4447 SN 0028-0836
4448 J9 NATURE
4449 JI Nature
4450 PD OCT 27
4451 PY 2005
4452 VL 437
4453 IS 7063
4454 BP 1218
4455 EP 1218
4456 PG 1
4457 SC Multidisciplinary Sciences
4458 GA 977UQ
4459 UT ISI:000232829100010
4460 ER
4461
4462 PT J
4463 AU Abbott, A
4464 TI Neuroscience: While you were sleeping
4465 SO NATURE
4466 LA English
4467 DT News Item
4468 ID REM-SLEEP; BEHAVIOR DISORDER; PARKINSONS-DISEASE; SYNUCLEINOPATHY; SPECT
4469 NR 7
4470 TC 0
4471 PU NATURE PUBLISHING GROUP
4472 PI LONDON
4473 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4474 SN 0028-0836
4475 J9 NATURE
4476 JI Nature
4477 PD OCT 27
4478 PY 2005
4479 VL 437
4480 IS 7063
4481 BP 1220
4482 EP 1222
4483 PG 3
4484 SC Multidisciplinary Sciences
4485 GA 977UQ
4486 UT ISI:000232829100011
4487 ER
4488
4489 PT J
4490 AU Brumfiel, G
4491 TI Physics: Far from the frontier
4492 SO NATURE
4493 LA English
4494 DT News Item
4495 NR 3
4496 TC 0
4497 PU NATURE PUBLISHING GROUP
4498 PI LONDON
4499 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4500 SN 0028-0836
4501 J9 NATURE
4502 JI Nature
4503 PD OCT 27
4504 PY 2005
4505 VL 437
4506 IS 7063
4507 BP 1224
4508 EP 1225
4509 PG 2
4510 SC Multidisciplinary Sciences
4511 GA 977UQ
4512 UT ISI:000232829100012
4513 ER
4514
4515 PT J
4516 AU Pilcher, H
4517 TI Microbiology: Pipe dreams
4518 SO NATURE
4519 LA English
4520 DT News Item
4521 ID ANAEROBIC AMMONIUM OXIDATION
4522 NR 9
4523 TC 0
4524 PU NATURE PUBLISHING GROUP
4525 PI LONDON
4526 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4527 SN 0028-0836
4528 J9 NATURE
4529 JI Nature
4530 PD OCT 27
4531 PY 2005
4532 VL 437
4533 IS 7063
4534 BP 1227
4535 EP 1228
4536 PG 2
4537 SC Multidisciplinary Sciences
4538 GA 977UQ
4539 UT ISI:000232829100013
4540 ER
4541
4542 PT J
4543 AU Marris, E
4544 TI Patent reform prompts intellectual tug-of-war
4545 SO NATURE
4546 LA English
4547 DT News Item
4548 NR 0
4549 TC 0
4550 PU NATURE PUBLISHING GROUP
4551 PI LONDON
4552 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4553 SN 0028-0836
4554 J9 NATURE
4555 JI Nature
4556 PD OCT 27
4557 PY 2005
4558 VL 437
4559 IS 7063
4560 BP 1230
4561 EP 1231
4562 PG 2
4563 SC Multidisciplinary Sciences
4564 GA 977UQ
4565 UT ISI:000232829100014
4566 ER
4567
4568 PT J
4569 AU Khamsi, R
4570 TI Market watch
4571 SO NATURE
4572 LA English
4573 DT News Item
4574 NR 0
4575 TC 0
4576 PU NATURE PUBLISHING GROUP
4577 PI LONDON
4578 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4579 SN 0028-0836
4580 J9 NATURE
4581 JI Nature
4582 PD OCT 27
4583 PY 2005
4584 VL 437
4585 IS 7063
4586 BP 1231
4587 EP 1231
4588 PG 1
4589 SC Multidisciplinary Sciences
4590 GA 977UQ
4591 UT ISI:000232829100015
4592 ER
4593
4594 PT J
4595 AU Friedberg, EC
4596 TI Call for a cull of pointlessly different reference styles
4597 SO NATURE
4598 LA English
4599 DT Letter
4600 C1 Univ Texas, SW Med Ctr, Dept Pathol, Dallas, TX 75390 USA.
4601 RP Friedberg, EC, Univ Texas, SW Med Ctr, Dept Pathol, Dallas, TX 75390
4602 USA.
4603 NR 0
4604 TC 0
4605 PU NATURE PUBLISHING GROUP
4606 PI LONDON
4607 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4608 SN 0028-0836
4609 J9 NATURE
4610 JI Nature
4611 PD OCT 27
4612 PY 2005
4613 VL 437
4614 IS 7063
4615 BP 1232
4616 EP 1232
4617 PG 1
4618 SC Multidisciplinary Sciences
4619 GA 977UQ
4620 UT ISI:000232829100016
4621 ER
4622
4623 PT J
4624 AU Culic, O
4625 TI Noting Croats' difference from other Slavs isn't racist
4626 SO NATURE
4627 LA English
4628 DT Letter
4629 RP Culic, O, Medvedgradska 70, Zagreb 10000, Croatia.
4630 NR 1
4631 TC 0
4632 PU NATURE PUBLISHING GROUP
4633 PI LONDON
4634 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4635 SN 0028-0836
4636 J9 NATURE
4637 JI Nature
4638 PD OCT 27
4639 PY 2005
4640 VL 437
4641 IS 7063
4642 BP 1232
4643 EP 1232
4644 PG 1
4645 SC Multidisciplinary Sciences
4646 GA 977UQ
4647 UT ISI:000232829100017
4648 ER
4649
4650 PT J
4651 AU Ramos, FM
4652 TI Internet forest-watchers a new force for conservation
4653 SO NATURE
4654 LA English
4655 DT Letter
4656 C1 Natl Inst Space Res, BR-12227010 Sao Paulo, Brazil.
4657 RP Ramos, FM, Natl Inst Space Res, Ave Astronautas 1758, BR-12227010 Sao
4658 Paulo, Brazil.
4659 NR 1
4660 TC 0
4661 PU NATURE PUBLISHING GROUP
4662 PI LONDON
4663 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4664 SN 0028-0836
4665 J9 NATURE
4666 JI Nature
4667 PD OCT 27
4668 PY 2005
4669 VL 437
4670 IS 7063
4671 BP 1232
4672 EP 1232
4673 PG 1
4674 SC Multidisciplinary Sciences
4675 GA 977UQ
4676 UT ISI:000232829100018
4677 ER
4678
4679 PT J
4680 AU Wohlfarth, T
4681 Storosum, J
4682 TI Later results don't confirm antidepressant suicide link
4683 SO NATURE
4684 LA English
4685 DT Letter
4686 C1 Med Evaluat Board Netherlands, NL-2500 BE The Hague, Netherlands.
4687 RP Wohlfarth, T, Med Evaluat Board Netherlands, POB 16229, NL-2500 BE The
4688 Hague, Netherlands.
4689 NR 0
4690 TC 0
4691 PU NATURE PUBLISHING GROUP
4692 PI LONDON
4693 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4694 SN 0028-0836
4695 J9 NATURE
4696 JI Nature
4697 PD OCT 27
4698 PY 2005
4699 VL 437
4700 IS 7063
4701 BP 1232
4702 EP 1232
4703 PG 1
4704 SC Multidisciplinary Sciences
4705 GA 977UQ
4706 UT ISI:000232829100019
4707 ER
4708
4709 PT J
4710 AU Gibbs, R
4711 TI Deeper into the genome
4712 SO NATURE
4713 LA English
4714 DT Editorial Material
4715 C1 Baylor Coll Med, Houston, TX 77030 USA.
4716 RP Gibbs, R, Baylor Coll Med, Houston, TX 77030 USA.
4717 NR 8
4718 TC 0
4719 PU NATURE PUBLISHING GROUP
4720 PI LONDON
4721 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4722 SN 0028-0836
4723 J9 NATURE
4724 JI Nature
4725 PD OCT 27
4726 PY 2005
4727 VL 437
4728 IS 7063
4729 BP 1233
4730 EP 1234
4731 PG 2
4732 SC Multidisciplinary Sciences
4733 GA 977UQ
4734 UT ISI:000232829100020
4735 ER
4736
4737 PT J
4738 AU Allen, JF
4739 TI Power, sex, suicide: Mitochondria and the meaning of life
4740 SO NATURE
4741 LA English
4742 DT Book Review
4743 C1 Univ London, Queen Mary, Sch Biol & Chem Sci, London E1 4NS, England.
4744 RP Allen, JF, Univ London, Queen Mary, Sch Biol & Chem Sci, Mile End Rd,
4745 London E1 4NS, England.
4746 NR 1
4747 TC 0
4748 PU NATURE PUBLISHING GROUP
4749 PI LONDON
4750 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4751 SN 0028-0836
4752 J9 NATURE
4753 JI Nature
4754 PD OCT 27
4755 PY 2005
4756 VL 437
4757 IS 7063
4758 BP 1235
4759 EP 1236
4760 PG 2
4761 SC Multidisciplinary Sciences
4762 GA 977UQ
4763 UT ISI:000232829100021
4764 ER
4765
4766 PT J
4767 AU Raine, D
4768 TI It's about time: Understanding Einstein's relativity
4769 SO NATURE
4770 LA English
4771 DT Book Review
4772 C1 Univ Leicester, Dept Phys & Astron, Leicester LE1 7RH, Leics, England.
4773 RP Raine, D, Univ Leicester, Dept Phys & Astron, Leicester LE1 7RH, Leics,
4774 England.
4775 NR 1
4776 TC 0
4777 PU NATURE PUBLISHING GROUP
4778 PI LONDON
4779 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4780 SN 0028-0836
4781 J9 NATURE
4782 JI Nature
4783 PD OCT 27
4784 PY 2005
4785 VL 437
4786 IS 7063
4787 BP 1237
4788 EP 1237
4789 PG 1
4790 SC Multidisciplinary Sciences
4791 GA 977UQ
4792 UT ISI:000232829100022
4793 ER
4794
4795 PT J
4796 AU Seeberger, PH
4797 TI Exploring life's sweet spot
4798 SO NATURE
4799 LA English
4800 DT Editorial Material
4801 C1 ETH, Organ Chem Lab, CH-8093 Zurich, Switzerland.
4802 Burnham Inst, La Jolla, CA 92037 USA.
4803 RP Seeberger, PH, ETH, Organ Chem Lab, Wolfgang Pauli Str 10, CH-8093
4804 Zurich, Switzerland.
4805 NR 2
4806 TC 0
4807 PU NATURE PUBLISHING GROUP
4808 PI LONDON
4809 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4810 SN 0028-0836
4811 J9 NATURE
4812 JI Nature
4813 PD OCT 27
4814 PY 2005
4815 VL 437
4816 IS 7063
4817 BP 1239
4818 EP 1239
4819 PG 1
4820 SC Multidisciplinary Sciences
4821 GA 977UQ
4822 UT ISI:000232829100023
4823 ER
4824
4825 PT J
4826 AU Goldstein, DB
4827 Cavalleri, GL
4828 TI Genomics - Understanding human diversity
4829 SO NATURE
4830 LA English
4831 DT Editorial Material
4832 ID SCHIZOPHRENIA; DISEASE
4833 C1 Duke Univ, Ctr Populat Genom & Pharmacogenet, Inst Genome Sci & Policy, Durham, NC 27710 USA.
4834 RP Goldstein, DB, Duke Univ, Ctr Populat Genom & Pharmacogenet, Inst
4835 Genome Sci & Policy, 103 Res Dr,DUMC Box 3471, Durham, NC 27710 USA.
4836 EM d.goldstein@duke.edu
4837 NR 7
4838 TC 0
4839 PU NATURE PUBLISHING GROUP
4840 PI LONDON
4841 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4842 SN 0028-0836
4843 J9 NATURE
4844 JI Nature
4845 PD OCT 27
4846 PY 2005
4847 VL 437
4848 IS 7063
4849 BP 1241
4850 EP 1242
4851 PG 2
4852 SC Multidisciplinary Sciences
4853 GA 977UQ
4854 UT ISI:000232829100024
4855 ER
4856
4857 PT J
4858 AU Mokaya, R
4859 Poliakoff, M
4860 TI Chemistry - A cleaner way to nylon?
4861 SO NATURE
4862 LA English
4863 DT Editorial Material
4864 C1 Univ Nottingham, Sch Chem, Nottingham NG7 2RD, England.
4865 RP Mokaya, R, Univ Nottingham, Sch Chem, Univ Pk, Nottingham NG7 2RD,
4866 England.
4867 EM R.Mokaya@nottingham.ac.uk
4868 Martyn.Poliakoff@nottingham.ac.uk
4869 NR 6
4870 TC 0
4871 PU NATURE PUBLISHING GROUP
4872 PI LONDON
4873 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4874 SN 0028-0836
4875 J9 NATURE
4876 JI Nature
4877 PD OCT 27
4878 PY 2005
4879 VL 437
4880 IS 7063
4881 BP 1243
4882 EP 1244
4883 PG 2
4884 SC Multidisciplinary Sciences
4885 GA 977UQ
4886 UT ISI:000232829100025
4887 ER
4888
4889 PT J
4890 AU Parry, G
4891 TI Solid-state physics - Silicon's new shine
4892 SO NATURE
4893 LA English
4894 DT Editorial Material
4895 C1 Univ London Imperial Coll Sci Technol & Med, Dept Phys, London SW7 2AZ, England.
4896 RP Parry, G, Univ London Imperial Coll Sci Technol & Med, Dept Phys,
4897 Prince Consort Rd, London SW7 2AZ, England.
4898 EM g.parry@imperial.ac.uk
4899 NR 4
4900 TC 0
4901 PU NATURE PUBLISHING GROUP
4902 PI LONDON
4903 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4904 SN 0028-0836
4905 J9 NATURE
4906 JI Nature
4907 PD OCT 27
4908 PY 2005
4909 VL 437
4910 IS 7063
4911 BP 1244
4912 EP 1244
4913 PG 1
4914 SC Multidisciplinary Sciences
4915 GA 977UQ
4916 UT ISI:000232829100026
4917 ER
4918
4919 PT J
4920 AU Jankowsky, E
4921 TI Biophysics - Helicase snaps back
4922 SO NATURE
4923 LA English
4924 DT Editorial Material
4925 ID ESCHERICHIA-COLI; REP HELICASE; MECHANISMS; RNA
4926 C1 Case Western Reserve Univ, Sch Med, Dept Biochem, Cleveland, OH 44106 USA.
4927 Case Western Reserve Univ, Sch Med, Ctr RNA Mol Biol, Cleveland, OH 44106 USA.
4928 RP Jankowsky, E, Case Western Reserve Univ, Sch Med, Dept Biochem, 10900
4929 Euclid Ave, Cleveland, OH 44106 USA.
4930 EM exj13@case.edu
4931 NR 9
4932 TC 0
4933 PU NATURE PUBLISHING GROUP
4934 PI LONDON
4935 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4936 SN 0028-0836
4937 J9 NATURE
4938 JI Nature
4939 PD OCT 27
4940 PY 2005
4941 VL 437
4942 IS 7063
4943 BP 1245
4944 EP 1245
4945 PG 1
4946 SC Multidisciplinary Sciences
4947 GA 977UQ
4948 UT ISI:000232829100027
4949 ER
4950
4951 PT J
4952 AU Greer, AL
4953 Mathur, N
4954 TI Materials science - Changing face of the chameleon
4955 SO NATURE
4956 LA English
4957 DT Editorial Material
4958 ID STATE
4959 C1 Univ Cambridge, Dept Mat Sci & Met, Cambridge CB2 3QZ, England.
4960 RP Greer, AL, Univ Cambridge, Dept Mat Sci & Met, New Museums
4961 Site,Pembroke St, Cambridge CB2 3QZ, England.
4962 EM alg13@cam.ac.uk
4963 ndm12@cus.cam.ac.uk
4964 NR 10
4965 TC 0
4966 PU NATURE PUBLISHING GROUP
4967 PI LONDON
4968 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
4969 SN 0028-0836
4970 J9 NATURE
4971 JI Nature
4972 PD OCT 27
4973 PY 2005
4974 VL 437
4975 IS 7063
4976 BP 1246
4977 EP 1247
4978 PG 2
4979 SC Multidisciplinary Sciences
4980 GA 977UQ
4981 UT ISI:000232829100028
4982 ER
4983
4984 PT J
4985 AU Drin, G
4986 Antonny, B
4987 TI Cell biology - Helices sculpt membrane
4988 SO NATURE
4989 LA English
4990 DT Editorial Material
4991 C1 CNRS, Inst Pharmacol Mol & Cellulaire, F-06560 Valbonne, France.
4992 Univ Nice, F-06560 Valbonne, France.
4993 RP Drin, G, CNRS, Inst Pharmacol Mol & Cellulaire, 660 Route Lucioles,
4994 F-06560 Valbonne, France.
4995 EM antonny@ipmc.cnrs.fr
4996 NR 0
4997 TC 0
4998 PU NATURE PUBLISHING GROUP
4999 PI LONDON
5000 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5001 SN 0028-0836
5002 J9 NATURE
5003 JI Nature
5004 PD OCT 27
5005 PY 2005
5006 VL 437
5007 IS 7063
5008 BP 1247
5009 EP 1248
5010 PG 2
5011 SC Multidisciplinary Sciences
5012 GA 977UQ
5013 UT ISI:000232829100029
5014 ER
5015
5016 PT J
5017 AU Lincoln, T
5018 TI Mycology - The whiff of danger
5019 SO NATURE
5020 LA English
5021 DT Editorial Material
5022 ID MEMBRANE CURVATURE; COPII VESICLE; HELIX; COAT
5023 NR 8
5024 TC 0
5025 PU NATURE PUBLISHING GROUP
5026 PI LONDON
5027 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5028 SN 0028-0836
5029 J9 NATURE
5030 JI Nature
5031 PD OCT 27
5032 PY 2005
5033 VL 437
5034 IS 7063
5035 BP 1248
5036 EP 1249
5037 PG 2
5038 SC Multidisciplinary Sciences
5039 GA 977UQ
5040 UT ISI:000232829100030
5041 ER
5042
5043 PT J
5044 AU van Wees, B
5045 TI Solid-state physics - Spin in the slow lane
5046 SO NATURE
5047 LA English
5048 DT Editorial Material
5049 C1 Univ Groningen, Dept Appl Phys, NL-9747 AG Groningen, Netherlands.
5050 Univ Groningen, Ctr Mat Sci, NL-9747 AG Groningen, Netherlands.
5051 RP van Wees, B, Univ Groningen, Dept Appl Phys, Nijenborgh 4-13, NL-9747
5052 AG Groningen, Netherlands.
5053 EM b.j.van.wees@rug.nl
5054 NR 7
5055 TC 0
5056 PU NATURE PUBLISHING GROUP
5057 PI LONDON
5058 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5059 SN 0028-0836
5060 J9 NATURE
5061 JI Nature
5062 PD OCT 27
5063 PY 2005
5064 VL 437
5065 IS 7063
5066 BP 1249
5067 EP 1249
5068 PG 1
5069 SC Multidisciplinary Sciences
5070 GA 977UQ
5071 UT ISI:000232829100031
5072 ER
5073
5074 PT J
5075 AU Oliveira, JG
5076 Barabasi, AL
5077 TI Human dynamics: Darwin and Einstein correspondence patterns
5078 SO NATURE
5079 LA English
5080 DT Editorial Material
5081 C1 Univ Notre Dame, Ctr Complex Network Res, Notre Dame, IN 46556 USA.
5082 Univ Notre Dame, Dept Phys, Notre Dame, IN 46556 USA.
5083 Univ Aveiro, Dept Fis, P-3810193 Aveiro, Portugal.
5084 Harvard Univ, Dana Farber Canc Inst, Ctr Canc Syst Biol, Boston, MA 02115 USA.
5085 RP Oliveira, JG, Univ Notre Dame, Ctr Complex Network Res, Notre Dame, IN
5086 46556 USA.
5087 EM alb@nd.edu
5088 NR 10
5089 TC 0
5090 PU NATURE PUBLISHING GROUP
5091 PI LONDON
5092 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5093 SN 0028-0836
5094 J9 NATURE
5095 JI Nature
5096 PD OCT 27
5097 PY 2005
5098 VL 437
5099 IS 7063
5100 BP 1251
5101 EP 1251
5102 PG 1
5103 SC Multidisciplinary Sciences
5104 GA 977UQ
5105 UT ISI:000232829100032
5106 ER
5107
5108 PT J
5109 AU Ju, TZ
5110 Cummings, RD
5111 TI Protein glycosylation - Chaperone mutation in Tn syndrome
5112 SO NATURE
5113 LA English
5114 DT Editorial Material
5115 ID BETA-1,3-GALACTOSYLTRANSFERASE
5116 C1 Univ Oklahoma, Hlth Sci Ctr, Dept Biochem & Mol Biol, Oklahoma City, OK 73104 USA.
5117 Univ Oklahoma, Hlth Sci Ctr, Oklahoma Ctr Med Glycobiol, Oklahoma City, OK 73104 USA.
5118 RP Ju, TZ, Univ Oklahoma, Hlth Sci Ctr, Dept Biochem & Mol Biol, Oklahoma
5119 City, OK 73104 USA.
5120 EM richard-cummings@ouhsc.edu
5121 NR 9
5122 TC 0
5123 PU NATURE PUBLISHING GROUP
5124 PI LONDON
5125 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5126 SN 0028-0836
5127 J9 NATURE
5128 JI Nature
5129 PD OCT 27
5130 PY 2005
5131 VL 437
5132 IS 7063
5133 BP 1252
5134 EP 1252
5135 PG 1
5136 SC Multidisciplinary Sciences
5137 GA 977UQ
5138 UT ISI:000232829100033
5139 ER
5140
5141 PT J
5142 AU Rowe, C
5143 Harris, JM
5144 Roberts, SC
5145 TI Sporting contests - Seeing red? Putting sportswear in context
5146 SO NATURE
5147 LA English
5148 DT Editorial Material
5149 ID COLOR
5150 C1 Univ Newcastle Upon Tyne, Sch Biol & Psychol, Newcastle Upon Tyne NE2 4HH, Tyne & Wear, England.
5151 Univ St Andrews, St Marys Coll, Sch Psychol, St Andrews KY16 9JP, Fife, Scotland.
5152 Univ Liverpool, Sch Biol Sci, Evolutionary Psychol & Behav Ecol Grp, Liverpool L69 7ZB, Merseyside, England.
5153 RP Rowe, C, Univ Newcastle Upon Tyne, Sch Biol & Psychol, Newcastle Upon
5154 Tyne NE2 4HH, Tyne & Wear, England.
5155 EM candy.rowe@ncl.ac.uk
5156 NR 8
5157 TC 0
5158 PU NATURE PUBLISHING GROUP
5159 PI LONDON
5160 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5161 SN 0028-0836
5162 J9 NATURE
5163 JI Nature
5164 PD OCT 27
5165 PY 2005
5166 VL 437
5167 IS 7063
5168 BP E10
5169 EP E10
5170 PG 1
5171 SC Multidisciplinary Sciences
5172 GA 977UQ
5173 UT ISI:000232829100034
5174 ER
5175
5176 PT J
5177 AU Barton, RA
5178 Hill, RA
5179 TI Sporting contests - Seeing red? Putting sportswear in context - Reply
5180 SO NATURE
5181 LA English
5182 DT Editorial Material
5183 ID DOMINANCE
5184 C1 Univ Durham, Dept Anthropol, Evolutionary Anthropol Res Grp, Durham DH1 3HN, England.
5185 RP Barton, RA, Univ Durham, Dept Anthropol, Evolutionary Anthropol Res
5186 Grp, Durham DH1 3HN, England.
5187 EM r.a.hill@durham.ac.uk
5188 NR 6
5189 TC 0
5190 PU NATURE PUBLISHING GROUP
5191 PI LONDON
5192 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5193 SN 0028-0836
5194 J9 NATURE
5195 JI Nature
5196 PD OCT 27
5197 PY 2005
5198 VL 437
5199 IS 7063
5200 BP E10
5201 EP E11
5202 PG 2
5203 SC Multidisciplinary Sciences
5204 GA 977UQ
5205 UT ISI:000232829100035
5206 ER
5207
5208 PT J
5209 AU Spiro, J
5210 TI Sleep
5211 SO NATURE
5212 LA English
5213 DT Editorial Material
5214 NR 0
5215 TC 0
5216 PU NATURE PUBLISHING GROUP
5217 PI LONDON
5218 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5219 SN 0028-0836
5220 J9 NATURE
5221 JI Nature
5222 PD OCT 27
5223 PY 2005
5224 VL 437
5225 IS 7063
5226 BP 1253
5227 EP 1253
5228 PG 1
5229 SC Multidisciplinary Sciences
5230 GA 977UQ
5231 UT ISI:000232829100036
5232 ER
5233
5234 PT J
5235 AU Hobson, JA
5236 TI Sleep is of the brain, by the brain and for the brain
5237 SO NATURE
5238 LA English
5239 DT Editorial Material
5240 ID PET
5241 AB Sleep is a widespread biological phenomenon, and its scientific study
5242 is proceeding at multiple levels at the same time. Marked progress is
5243 being made in answering three fundamental questions: what is sleep,
5244 what are its mechanisms and what are its functions? The most salient
5245 answers to these questions have resulted from applying new techniques
5246 from basic and applied neuroscience research. The study of sleep is
5247 also shedding light on our understanding of consciousness, which
5248 undergoes alteration in parallel with sleep-induced changes in the
5249 brain.
5250 C1 Harvard Univ, Sch Med, Dept Psychiat, Boston, MA 02115 USA.
5251 RP Hobson, JA, Harvard Univ, Sch Med, Dept Psychiat, 74 Fenwood Rd,401 Pk
5252 Dr,2nd Floor E, Boston, MA 02115 USA.
5253 EM allan_hobson@hms.harvard.edu
5254 NR 19
5255 TC 0
5256 PU NATURE PUBLISHING GROUP
5257 PI LONDON
5258 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5259 SN 0028-0836
5260 J9 NATURE
5261 JI Nature
5262 PD OCT 27
5263 PY 2005
5264 VL 437
5265 IS 7063
5266 BP 1254
5267 EP 1256
5268 PG 3
5269 SC Multidisciplinary Sciences
5270 GA 977UQ
5271 UT ISI:000232829100037
5272 ER
5273
5274 PT J
5275 AU Saper, CB
5276 Scammell, TE
5277 Lu, J
5278 TI Hypothalamic regulation of sleep and circadian rhythms
5279 SO NATURE
5280 LA English
5281 DT Review
5282 ID VENTROLATERAL PREOPTIC NUCLEUS; BEHAVIORAL STATE; SUPRACHIASMATIC
5283 NUCLEUS; BASAL FOREBRAIN; TUBEROMAMMILLARY NEURONS; GALANINERGIC
5284 NEURONS; PARADOXICAL SLEEP; WAKING DISCHARGE; LOCUS-COERULEUS;
5285 HUMAN-BRAIN
5286 AB A series of findings over the past decade has begun to identify the
5287 brain circuitry and neurotransmitters that regulate our daily cycles of
5288 sleep and wakefulness. The latter depends on a network of cell groups
5289 that activate the thalamus and the cerebral cortex. A key switch in the
5290 hypothalamus shuts off this arousal system during sleep. Other
5291 hypothalamic neurons stabilize the switch, and their absence results in
5292 inappropriate switching of behavioural states, such as occurs in
5293 narcolepsy. These findings explain how various drugs affect sleep and
5294 wakefulness, and provide the basis for a wide range of environmental
5295 influences to shape wake - sleep cycles into the optimal pattern for
5296 survival.
5297 C1 Harvard Univ, Sch Med, Beth Israel Deaconess Med Ctr, Dept Neurol, Boston, MA 02215 USA.
5298 Harvard Univ, Sch Med, Beth Israel Deaconess Med Ctr, Program Neurosci, Boston, MA 02215 USA.
5299 RP Saper, CB, Harvard Univ, Sch Med, Beth Israel Deaconess Med Ctr, Dept
5300 Neurol, Boston, MA 02215 USA.
5301 EM csaper@bidmc.harvard.edu
5302 NR 100
5303 TC 0
5304 PU NATURE PUBLISHING GROUP
5305 PI LONDON
5306 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5307 SN 0028-0836
5308 J9 NATURE
5309 JI Nature
5310 PD OCT 27
5311 PY 2005
5312 VL 437
5313 IS 7063
5314 BP 1257
5315 EP 1263
5316 PG 7
5317 SC Multidisciplinary Sciences
5318 GA 977UQ
5319 UT ISI:000232829100038
5320 ER
5321
5322 PT J
5323 AU Siegel, JM
5324 TI Clues to the functions of mammalian sleep
5325 SO NATURE
5326 LA English
5327 DT Review
5328 ID SLOW-WAVE SLEEP; REM-SLEEP; BRAIN-STEM; RAT-BRAIN;
5329 DROSOPHILA-MELANOGASTER; PARADOXICAL SLEEP; TACHYGLOSSUS-ACULEATUS;
5330 MEMORY CONSOLIDATION; RETICULAR-FORMATION; ENERGY-METABOLISM
5331 AB The functions of mammalian sleep remain unclear. Most theories suggest
5332 a role for non-rapid eye movement (NREM) sleep in energy conservation
5333 and in nervous system recuperation. Theories of REM sleep have
5334 suggested a role for this state in periodic brain activation during
5335 sleep, in localized recuperative processes and in emotional regulation.
5336 Across mammals, the amount and nature of sleep are correlated with age,
5337 body size and ecological variables, such as whether the animals live in
5338 a terrestrial or an aquatic environment, their diet and the safety of
5339 their sleeping site. Sleep may be an efficient time for the completion
5340 of a number of functions, but variations in sleep expression indicate
5341 that these functions may differ across species.
5342 C1 Univ Calif Los Angeles, Sch Med, Dept Psychiat, VA GLAHS Sepulveda, North Hills, CA 91343 USA.
5343 Univ Calif Los Angeles, Sch Med, Brain Res Inst, North Hills, CA 91343 USA.
5344 RP Siegel, JM, Univ Calif Los Angeles, Sch Med, Dept Psychiat, VA GLAHS
5345 Sepulveda, North Hills, CA 91343 USA.
5346 EM JSiegel@ucla.edu
5347 NR 100
5348 TC 0
5349 PU NATURE PUBLISHING GROUP
5350 PI LONDON
5351 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5352 SN 0028-0836
5353 J9 NATURE
5354 JI Nature
5355 PD OCT 27
5356 PY 2005
5357 VL 437
5358 IS 7063
5359 BP 1264
5360 EP 1271
5361 PG 8
5362 SC Multidisciplinary Sciences
5363 GA 977UQ
5364 UT ISI:000232829100039
5365 ER
5366
5367 PT J
5368 AU Stickgold, R
5369 TI Sleep-dependent memory consolidation
5370 SO NATURE
5371 LA English
5372 DT Review
5373 ID EYE-MOVEMENT SLEEP; LONG-TERM POTENTIATION; BRAIN GENE-EXPRESSION; LATE
5374 NOCTURNAL SLEEP; SLOW-WAVE SLEEP; REM-SLEEP; VISUAL-CORTEX; MOTOR
5375 MEMORY; DISCRIMINATION; SKILL
5376 AB The concept of 'sleeping on a problem' is familiar to most of us. But
5377 with myriad stages of sleep, forms of memory and processes of memory
5378 encoding and consolidation, sorting out how sleep contributes to memory
5379 has been anything but straightforward. Nevertheless, converging
5380 evidence, from the molecular to the phenomenological, leaves little
5381 doubt that offline memory reprocessing during sleep is an important
5382 component of how our memories are formed and ultimately shaped.
5383 C1 Harvard Univ, Sch Med, Dept Psychiat, Boston, MA 02215 USA.
5384 Beth Israel Deaconess Med Ctr, Ctr Sleep & Cognit, Boston, MA 02215 USA.
5385 RP Stickgold, R, Harvard Univ, Sch Med, Dept Psychiat, 330 Brookline
5386 Ave,FD-861, Boston, MA 02215 USA.
5387 EM rstickgold@hms.harvard.edu
5388 NR 63
5389 TC 0
5390 PU NATURE PUBLISHING GROUP
5391 PI LONDON
5392 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5393 SN 0028-0836
5394 J9 NATURE
5395 JI Nature
5396 PD OCT 27
5397 PY 2005
5398 VL 437
5399 IS 7063
5400 BP 1272
5401 EP 1278
5402 PG 7
5403 SC Multidisciplinary Sciences
5404 GA 977UQ
5405 UT ISI:000232829100040
5406 ER
5407
5408 PT J
5409 AU Mahowald, MW
5410 Schenck, CH
5411 TI Insights from studying human sleep disorders
5412 SO NATURE
5413 LA English
5414 DT Review
5415 ID RESTLESS LEGS SYNDROME; BEHAVIOR DISORDER; CHRONIC INSOMNIA; REM-SLEEP;
5416 NIGHT-TERRORS; CIRCADIAN-RHYTHM; PHASE SYNDROME; DOPAMINE TRANSPORTERS;
5417 PARKINSONS-DISEASE; NOCTURNAL SLEEP
5418 AB Problems with sleep are one of the commonest reasons for seeking
5419 medical attention. Knowledge gained from basic research into sleep in
5420 animals has led to marked advances in the understanding of human sleep,
5421 with important diagnostic and therapeutic implications. At the same
5422 time, research guided by human sleep disorders is leading to important
5423 basic sleep concepts. For example, sleep may not be a global, but
5424 rather a local, brain phenomenon. Furthermore, contrary to common
5425 assumptions, wakefulness, rapid eye movement (REM) and non-REM sleep
5426 are not mutually exclusive states. This striking realization explains a
5427 fascinating range of clinical phenomena.
5428 C1 Hennepin Cty Med Ctr, Minnesota Reg Sleep Disorders Ctr, Minneapolis, MN 55415 USA.
5429 Hennepin Cty Med Ctr, Dept Neurol, Minneapolis, MN 55415 USA.
5430 Hennepin Cty Med Ctr, Dept Psychiat, Minneapolis, MN 55415 USA.
5431 Univ Minnesota, Sch Med, Minneapolis, MN 55415 USA.
5432 RP Mahowald, MW, Hennepin Cty Med Ctr, Minnesota Reg Sleep Disorders Ctr,
5433 Minneapolis, MN 55415 USA.
5434 EM mahow002@umn.edu
5435 NR 77
5436 TC 0
5437 PU NATURE PUBLISHING GROUP
5438 PI LONDON
5439 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5440 SN 0028-0836
5441 J9 NATURE
5442 JI Nature
5443 PD OCT 27
5444 PY 2005
5445 VL 437
5446 IS 7063
5447 BP 1279
5448 EP 1285
5449 PG 7
5450 SC Multidisciplinary Sciences
5451 GA 977UQ
5452 UT ISI:000232829100041
5453 ER
5454
5455 PT J
5456 AU Nielsen, TA
5457 Stenstrom, P
5458 TI hat are the memory sources of dreaming?
5459 SO NATURE
5460 LA English
5461 DT Article
5462 ID EYE-MOVEMENT SLEEP; REM-SLEEP; EPISODIC MEMORY; CONSOLIDATION; EVENTS;
5463 HIPPOCAMPUS; HUMANS; BRAIN; FMRI
5464 AB Investigators since Freud have appreciated that memories of the people,
5465 places, activities and emotions of daily life are reflected in dreams
5466 but are typically so fragmented that their predictability is nil. The
5467 mechanisms that translate such memories into dream images remain
5468 largely unknown. New research targeting relationships between dreaming,
5469 memory and the hippocampus is producing a new theory to explain how,
5470 why and when we dream of waking life events.
5471 C1 Hop Sacre Coeur, Dream & Nightmare Lab, Montreal, PQ H4J 1C5, Canada.
5472 Hop Sacre Coeur, Dept Psychiat, Montreal, PQ H4J 1C5, Canada.
5473 Hop Sacre Coeur, Dept Psychol, Montreal, PQ H4J 1C5, Canada.
5474 RP Nielsen, TA, Hop Sacre Coeur, Dream & Nightmare Lab, 5400 Blvd Gouin
5475 Ouest, Montreal, PQ H4J 1C5, Canada.
5476 EM tore.nielsen@umontreal.ca
5477 NR 41
5478 TC 0
5479 PU NATURE PUBLISHING GROUP
5480 PI LONDON
5481 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5482 SN 0028-0836
5483 J9 NATURE
5484 JI Nature
5485 PD OCT 27
5486 PY 2005
5487 VL 437
5488 IS 7063
5489 BP 1286
5490 EP 1289
5491 PG 4
5492 SC Multidisciplinary Sciences
5493 GA 977UQ
5494 UT ISI:000232829100042
5495 ER
5496
5497 PT J
5498 AU Nowak, MA
5499 Sigmund, K
5500 TI Evolution of indirect reciprocity
5501 SO NATURE
5502 LA English
5503 DT Review
5504 ID TIT-FOR-TAT; PRISONERS-DILEMMA; SOCIAL NORMS; NEURAL BASIS; ALTRUISTIC
5505 PUNISHMENT; REPEATED GAMES; COOPERATION; REPUTATION; INFORMATION;
5506 DYNAMICS
5507 AB Natural selection is conventionally assumed to favour the strong and
5508 selfish who maximize their own resources at the expense of others. But
5509 many biological systems, and especially human societies, are organized
5510 around altruistic, cooperative interactions. How can natural selection
5511 promote unselfish behaviour? Various mechanisms have been proposed, and
5512 a rich analysis of indirect reciprocity has recently emerged: I help
5513 you and somebody else helps me. The evolution of cooperation by
5514 indirect reciprocity leads to reputation building, morality judgement
5515 and complex social interactions with ever-increasing cognitive demands.
5516 C1 Univ Vienna, Fac Math, A-1090 Vienna, Austria.
5517 IIASA, A-2631 Laxenburg, Austria.
5518 Harvard Univ, Dept Math, Dept Organism & Evolutionary Biol, Program Evolutionary Dynam, Cambridge, MA 02138 USA.
5519 RP Sigmund, K, Univ Vienna, Fac Math, Waehringer Guertel 18, A-1090
5520 Vienna, Austria.
5521 EM karl.sigmund@univie.ac.at
5522 NR 87
5523 TC 0
5524 PU NATURE PUBLISHING GROUP
5525 PI LONDON
5526 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5527 SN 0028-0836
5528 J9 NATURE
5529 JI Nature
5530 PD OCT 27
5531 PY 2005
5532 VL 437
5533 IS 7063
5534 BP 1291
5535 EP 1298
5536 PG 8
5537 SC Multidisciplinary Sciences
5538 GA 977UQ
5539 UT ISI:000232829100043
5540 ER
5541
5542 PT J
5543 AU Altshuler, D
5544 Brooks, LD
5545 Chakravarti, A
5546 Collins, FS
5547 Daly, MJ
5548 Donnelly, P
5549 CA Int HapMap Consortium
5550 TI A haplotype map of the human genome
5551 SO NATURE
5552 LA English
5553 DT Review
5554 ID SINGLE-NUCLEOTIDE POLYMORPHISM; RECENT POSITIVE SELECTION; FACTOR-H
5555 POLYMORPHISM; LINKAGE-DISEQUILIBRIUM; MACULAR DEGENERATION;
5556 RECOMBINATION RATES; HUMAN-POPULATIONS; SEGMENTAL DUPLICATIONS; MEIOTIC
5557 RECOMBINATION; TYROSINE-PHOSPHATASE
5558 AB Inherited genetic variation has a critical but as yet largely
5559 uncharacterized role in human disease. Here we report a public database
5560 of common variation in the human genome: more than one million single
5561 nucleotide polymorphisms ( SNPs) for which accurate and complete
5562 genotypes have been obtained in 269 DNA samples from four populations,
5563 including ten 500-kilobase regions in which essentially all information
5564 about common DNA variation has been extracted. These data document the
5565 generality of recombination hotspots, a block-like structure of linkage
5566 disequilibrium and low haplotype diversity, leading to substantial
5567 correlations of SNPs with many of their neighbours. We show how the
5568 HapMap resource can guide the design and analysis of genetic
5569 association studies, shed light on structural variation and
5570 recombination, and identify loci that may have been subject to natural
5571 selection during human evolution.
5572 C1 Harvard Univ, Broad Inst, Cambridge, MA 02139 USA.
5573 MIT, Cambridge, MA 02139 USA.
5574 Massachusetts Gen Hosp, Boston, MA 02114 USA.
5575 Harvard Univ, Sch Med, Simches Res Ctr, Boston, MA 02114 USA.
5576 Johns Hopkins Univ, Sch Med, McKusick Nathans Inst Genet Med, Baltimore, MD 21205 USA.
5577 RP Altshuler, D, Harvard Univ, Broad Inst, 1 Kendall Sq, Cambridge, MA
5578 02139 USA.
5579 EM altshuler@molbio.mgh.harvard.edu
5580 donnelly@stats.ox.ac.uk
5581 NR 103
5582 TC 0
5583 PU NATURE PUBLISHING GROUP
5584 PI LONDON
5585 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5586 SN 0028-0836
5587 J9 NATURE
5588 JI Nature
5589 PD OCT 27
5590 PY 2005
5591 VL 437
5592 IS 7063
5593 BP 1299
5594 EP 1320
5595 PG 22
5596 SC Multidisciplinary Sciences
5597 GA 977UQ
5598 UT ISI:000232829100044
5599 ER
5600
5601 PT J
5602 AU Myong, S
5603 Rasnik, I
5604 Joo, C
5605 Lohman, TM
5606 Ha, T
5607 TI Repetitive shuttling of a motor protein on DNA
5608 SO NATURE
5609 LA English
5610 DT Article
5611 ID RESONANCE ENERGY-TRANSFER; SINGLE-STRANDED-DNA; COLI REP HELICASE;
5612 ESCHERICHIA-COLI; FLUORESCENCE SPECTROSCOPY; NUCLEOPROTEIN FILAMENTS;
5613 CRYSTAL-STRUCTURES; REPLICATION; MOLECULE; RECOMBINATION
5614 AB Many helicases modulate recombination, an essential process that needs
5615 to be tightly controlled. Mutations in some human disease helicases
5616 cause increased recombination, genome instability and cancer. To
5617 elucidate the potential mode of action of these enzymes, here we
5618 developed a single-molecule fluorescence assay that can visualize DNA
5619 binding and translocation of Escherichia coli Rep, a superfamily 1 DNA
5620 helicase homologous to Saccharomyces cerevisiae Srs2. Individual Rep
5621 monomers were observed to move on single-stranded ( ss) DNA in the 30
5622 to 50 direction using ATP hydrolysis. Strikingly, on hitting a
5623 blockade, such as duplex DNA or streptavidin, the protein abruptly
5624 snapped back close to its initial position, followed by further cycles
5625 of translocation and snapback. This repetitive shuttling is likely to
5626 be caused by a blockade-induced protein conformational change that
5627 enhances DNA affinity for the protein's secondary DNA binding site,
5628 thereby resulting in a transient DNA loop. Repetitive shuttling was
5629 also observed on ssDNA bounded by a stalled replication fork and an
5630 Okazaki fragment analogue, and the presence of Rep delayed formation of
5631 a filament of recombination protein RecA on ssDNA. Thus, the binding of
5632 a single Rep monomer to a stalled replication fork can lead to
5633 repetitive shuttling along the single-stranded region, possibly keeping
5634 the DNA clear of toxic recombination intermediates.
5635 C1 Univ Illinois, Dept Phys, Urbana, IL 61801 USA.
5636 Howard Hughes Med Inst, Urbana, IL 61801 USA.
5637 Washington Univ, Sch Med, Dept Biochem & Mol Biophys, St Louis, MO 63110 USA.
5638 RP Ha, T, Univ Illinois, Dept Phys, 1110 W Green St, Urbana, IL 61801 USA.
5639 EM tjha@uiuc.edu
5640 NR 34
5641 TC 1
5642 PU NATURE PUBLISHING GROUP
5643 PI LONDON
5644 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5645 SN 0028-0836
5646 J9 NATURE
5647 JI Nature
5648 PD OCT 27
5649 PY 2005
5650 VL 437
5651 IS 7063
5652 BP 1321
5653 EP 1325
5654 PG 5
5655 SC Multidisciplinary Sciences
5656 GA 977UQ
5657 UT ISI:000232829100045
5658 ER
5659
5660 PT J
5661 AU Murray, CD
5662 Chavez, C
5663 Beurle, K
5664 Cooper, N
5665 Evans, MW
5666 Burns, JA
5667 Porco, CC
5668 TI How prometheus creates structure in Saturn's F ring
5669 SO NATURE
5670 LA English
5671 DT Article
5672 ID CASSINI IMAGING SCIENCE; PERTURBATIONS; SATELLITES; STRANDS; MASSES
5673 AB Images of Saturn's narrow and contorted F ring returned by the Cassini
5674 spacecraft(1) have revealed phenomena not previously detected in any
5675 planetary ring system. The perturbing effect of the inner shepherding
5676 satellite, Prometheus, seems to introduce channels through the F ring
5677 and a 'streamer' - a line of particles that link the ring to the
5678 satellite. The detailed mechanism for the formation of these features
5679 has been lacking an explanation. Here we show that these phenomena can
5680 be understood in terms of a simple gravitational interaction as
5681 Prometheus approaches and recedes from the F ring every 14.7 hours. Our
5682 numerical models show that as Prometheus recedes from its closest
5683 approach to the F ring, it draws out ring material; one orbital period
5684 later, this affected region has undergone keplerian shear and is
5685 visible as a channel, in excellent agreement with structures seen in
5686 the Cassini images. Prometheus' periodic disruption of the F ring will
5687 become more pronounced as the two orbits approach their minimum
5688 separation in 2009. The model predicts that the appearance of streamers
5689 and the associated channels will vary in a regular fashion on a
5690 timescale of one orbital period.
5691 C1 Univ London, Queen Mary, Astron Unit, London E1 4NS, England.
5692 Cornell Univ, Dept Astron, Ithaca, NY 14853 USA.
5693 Cornell Univ, Dept Theoret & Appl Mech, Ithaca, NY 14853 USA.
5694 Space Sci Inst, Cassini Imaging Cent Lab Operat, Boulder, CO 80301 USA.
5695 RP Murray, CD, Univ London, Queen Mary, Astron Unit, Mile End Rd, London
5696 E1 4NS, England.
5697 EM C.D.Murray@qmul.ac.uk
5698 NR 14
5699 TC 0
5700 PU NATURE PUBLISHING GROUP
5701 PI LONDON
5702 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5703 SN 0028-0836
5704 J9 NATURE
5705 JI Nature
5706 PD OCT 27
5707 PY 2005
5708 VL 437
5709 IS 7063
5710 BP 1326
5711 EP 1329
5712 PG 4
5713 SC Multidisciplinary Sciences
5714 GA 977UQ
5715 UT ISI:000232829100046
5716 ER
5717
5718 PT J
5719 AU Weber, CP
5720 Gedik, N
5721 Moore, JE
5722 Orenstein, J
5723 Stephens, J
5724 Awschalom, DD
5725 TI Observation of spin Coulomb drag in a two-dimensional electron gas
5726 SO NATURE
5727 LA English
5728 DT Article
5729 ID STIMULATED RAMAN-SCATTERING; SEMICONDUCTORS; LIQUIDS
5730 AB An electron propagating through a solid carries spin angular momentum
5731 in addition to its mass and charge. Of late there has been considerable
5732 interest in developing electronic devices based on the transport of
5733 spin that offer potential advantages in dissipation, size and speed
5734 over charge-based devices(1). However, these advantages bring with them
5735 additional complexity. Because each electron carries a single, fixed
5736 value (-e) of charge, the electrical current carried by a gas of
5737 electrons is simply proportional to its total momentum. A fundamental
5738 consequence is that the charge current is not affected by interactions
5739 that conserve total momentum, notably collisions among the electrons
5740 themselves(2). In contrast, the electron's spin along a given spatial
5741 direction can take on two values, +/-(h) over bar /2 (conventionally up
5742 arrow, down arrow), so that the spin current and momentum need not be
5743 proportional. Although the transport of spin polarization is not
5744 protected by momentum conservation, it has been widely assumed that,
5745 like the charge current, spin current is unaffected by electron -
5746 electron ( e - e) interactions. Here we demonstrate experimentally not
5747 only that this assumption is invalid, but also that over a broad range
5748 of temperature and electron density, the flow of spin polarization in a
5749 two-dimensional gas of electrons is controlled by the rate of e - e
5750 collisions.
5751 C1 Univ Calif Berkeley, Dept Phys, Berkeley, CA 94720 USA.
5752 Univ Calif Berkeley, Lawrence Berkeley Lab, Div Mat Sci, Berkeley, CA 94720 USA.
5753 CALTECH, Arthur Amos Noyes Lab Chem Phys, Lab Mol Sci, Pasadena, CA 91125 USA.
5754 Univ Calif Santa Barbara, Ctr Spintron & Quantum Computat, Santa Barbara, CA 93106 USA.
5755 RP Weber, CP, Univ Calif Berkeley, Dept Phys, Berkeley, CA 94720 USA.
5756 EM cpweber@lbl.gov
5757 NR 18
5758 TC 1
5759 PU NATURE PUBLISHING GROUP
5760 PI LONDON
5761 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5762 SN 0028-0836
5763 J9 NATURE
5764 JI Nature
5765 PD OCT 27
5766 PY 2005
5767 VL 437
5768 IS 7063
5769 BP 1330
5770 EP 1333
5771 PG 4
5772 SC Multidisciplinary Sciences
5773 GA 977UQ
5774 UT ISI:000232829100047
5775 ER
5776
5777 PT J
5778 AU Kuo, YH
5779 Lee, YK
5780 Ge, YS
5781 Ren, S
5782 Roth, JE
5783 Kamins, TI
5784 Miller, DAB
5785 Harris, JS
5786 TI Strong quantum-confined Stark effect in germanium quantum-well
5787 structures on silicon
5788 SO NATURE
5789 LA English
5790 DT Article
5791 ID ELECTROABSORPTION MODULATORS; OPTICAL INTERCONNECTS; BAND PARAMETERS;
5792 TECHNOLOGY; SIGE; ALLOYS; SHIFT
5793 AB Silicon is the dominant semiconductor for electronics, but there is now
5794 a growing need to integrate such components with optoelectronics for
5795 telecommunications and computer interconnections(1). Silicon-based
5796 optical modulators have recently been successfully demonstrated(2,3);
5797 but because the light modulation mechanisms in silicon(4) are
5798 relatively weak, long ( for example, several millimetres) devices(2) or
5799 sophisticated high-quality-factor resonators(3) have been necessary.
5800 Thin quantum-well structures made from III-V semiconductors such as
5801 GaAs, InP and their alloys exhibit the much stronger quantum-confined
5802 Stark effect (QCSE) mechanism(5), which allows modulator structures
5803 with only micrometres of optical path length(6,7). Such III-V materials
5804 are unfortunately difficult to integrate with silicon electronic
5805 devices. Germanium is routinely integrated with silicon in
5806 electronics(8), but previous silicon - germanium structures have also
5807 not shown strong modulation effects(9-13). Here we report the discovery
5808 of the QCSE, at room temperature, in thin germanium quantum-well
5809 structures grown on silicon. The QCSE here has strengths comparable to
5810 that in III-V materials. Its clarity and strength are particularly
5811 surprising because germanium is an indirect gap semiconductor; such
5812 semiconductors often display much weaker optical effects than direct
5813 gap materials ( such as the III-V materials typically used for
5814 optoelectronics). This discovery is very promising for small,
5815 high-speed(14), low-power(15-17) optical output devices fully
5816 compatible with silicon electronics manufacture.
5817 C1 Stanford Univ, Dept Elect Engn, Solid State & Photon Lab, Stanford, CA 94305 USA.
5818 Hewlett Packard Labs, Quantum Sci Res, Palo Alto, CA 94304 USA.
5819 RP Kuo, YH, Stanford Univ, Dept Elect Engn, Solid State & Photon Lab,
5820 Stanford, CA 94305 USA.
5821 EM yhkuo@stanford.edu
5822 NR 28
5823 TC 1
5824 PU NATURE PUBLISHING GROUP
5825 PI LONDON
5826 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5827 SN 0028-0836
5828 J9 NATURE
5829 JI Nature
5830 PD OCT 27
5831 PY 2005
5832 VL 437
5833 IS 7063
5834 BP 1334
5835 EP 1336
5836 PG 3
5837 SC Multidisciplinary Sciences
5838 GA 977UQ
5839 UT ISI:000232829100048
5840 ER
5841
5842 PT J
5843 AU van Delden, RA
5844 ter Wiel, MKJ
5845 Pollard, MM
5846 Vicario, J
5847 Koumura, N
5848 Feringa, BL
5849 TI Unidirectional molecular motor on a gold surface
5850 SO NATURE
5851 LA English
5852 DT Article
5853 ID SINGLE STEREOGENIC CENTER; ROTARY MOTION; ROTATION; ROTOR; NANOPARTICLES
5854 AB Molecules capable of mimicking the function of a wide range of
5855 mechanical devices have been fabricated, with motors that can induce
5856 mechanical movement attracting particular attention(1,2). Such
5857 molecular motors convert light or chemical energy into directional
5858 rotary or linear motion(2-10), and are usually prepared and operated in
5859 solution. But if they are to be used as nanomachines that can do useful
5860 work, it seems essential to construct systems that can function on a
5861 surface, like a recently reported linear artificial muscle(11).
5862 Surface-mounted rotors have been realized and limited directionality in
5863 their motion predicted(12,13). Here we demonstrate that a light-driven
5864 molecular motor capable of repetitive unidirectional rotation(14) can
5865 be mounted on the surface of gold nanoparticles. The motor design(14)
5866 uses a chiral helical alkene with an upper half that serves as a
5867 propeller and is connected through a carbon - carbon double bond ( the
5868 rotation axis) to a lower half that serves as a stator. The stator
5869 carries two thiol-functionalized 'legs', which then bind the entire
5870 motor molecule to a gold surface. NMR spectroscopy reveals that two
5871 photo-induced cis-trans isomerizations of the central double bond, each
5872 followed by a thermal helix inversion to prevent reverse rotation,
5873 induce a full and unidirectional 3608 rotation of the propeller with
5874 respect to the surface-mounted lower half of the system.
5875 C1 Univ Groningen, Stratingh Inst, Dept Organ Chem, NL-9747 AG Groningen, Netherlands.
5876 RP Feringa, BL, Univ Groningen, Stratingh Inst, Dept Organ Chem,
5877 Nijenborgh 4, NL-9747 AG Groningen, Netherlands.
5878 EM B.L.Feringa@rug.nl
5879 NR 21
5880 TC 0
5881 PU NATURE PUBLISHING GROUP
5882 PI LONDON
5883 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5884 SN 0028-0836
5885 J9 NATURE
5886 JI Nature
5887 PD OCT 27
5888 PY 2005
5889 VL 437
5890 IS 7063
5891 BP 1337
5892 EP 1340
5893 PG 4
5894 SC Multidisciplinary Sciences
5895 GA 977UQ
5896 UT ISI:000232829100049
5897 ER
5898
5899 PT J
5900 AU Steuber, T
5901 Rauch, M
5902 Masse, JP
5903 Graaf, J
5904 Malkoc, M
5905 TI Low-latitude seasonality of Cretaceous temperatures in warm and cold
5906 episodes
5907 SO NATURE
5908 LA English
5909 DT Article
5910 ID SEA-SURFACE TEMPERATURES; LOW-MG CALCITE; MARINE WATERS; CARBONATE;
5911 EVOLUTION; BIVALVES; OCEAN
5912 AB The Cretaceous period is generally considered to have been a time of
5913 warm climate(1-6). Evidence for cooler episodes exists, particularly in
5914 the early Cretaceous period(6-8), but the timing and significance of
5915 these cool episodes are not well constrained. The seasonality of
5916 temperatures is important for constraining equator-to-pole temperature
5917 gradients and may indicate the presence of polar ice sheets; however,
5918 reconstructions of Cretaceous sea surface temperatures are
5919 predominantly based on the oxygen isotopic composition of planktonic
5920 foraminifera(1-4) that do not provide information about such
5921 intra-annual variations. Here we present intra-shell variations in
5922 delta(18)O values of rudist bivalves (Hippuritoidea) from
5923 palaeolatitudes between 8 degrees and 31 degrees N, which record the
5924 evolution of the seasonality of Cretaceous sea surface temperatures in
5925 detail. We find high maximum temperatures (, 35 to 37 degrees C) and
5926 relatively low seasonal variability (< 12 degrees C) between 20 degrees
5927 and 30 degrees N during the warmer Cretaceous episodes. In contrast,
5928 during the cooler episodes our data show seasonal sea surface
5929 temperature variability of up to 18 degrees C near 25 degrees N,
5930 comparable to the range found today. Such a large seasonal variability
5931 is compatible with the existence of polar ice sheets.
5932 C1 Ruhr Univ Bochum, Inst Geol Mineral & Geophys, D-44801 Bochum, Germany.
5933 Univ Aix Marseille 1, Ctr Sedimentol Paleontol, F-13331 Marseille, France.
5934 Vrije Univ Amsterdam, Dept Earth & Life Sci, NL-1081 HV Amsterdam, Netherlands.
5935 RP Steuber, T, Ruhr Univ Bochum, Inst Geol Mineral & Geophys, D-44801
5936 Bochum, Germany.
5937 EM thomas.steuber@ruhr-uni-bochum.de
5938 NR 30
5939 TC 0
5940 PU NATURE PUBLISHING GROUP
5941 PI LONDON
5942 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5943 SN 0028-0836
5944 J9 NATURE
5945 JI Nature
5946 PD OCT 27
5947 PY 2005
5948 VL 437
5949 IS 7063
5950 BP 1341
5951 EP 1344
5952 PG 4
5953 SC Multidisciplinary Sciences
5954 GA 977UQ
5955 UT ISI:000232829100050
5956 ER
5957
5958 PT J
5959 AU Wood, BJ
5960 Halliday, AN
5961 TI Cooling of the Earth and core formation after the giant impact
5962 SO NATURE
5963 LA English
5964 DT Article
5965 ID HF-W CHRONOMETRY; OXIDATION-STATE; TERRESTRIAL ACCRETION; LOWER-MANTLE;
5966 ELEMENTS; ORIGIN; METAL; MOON; CONSTRAINTS; TIMESCALE
5967 AB Kelvin calculated the age of the Earth to be about 24 million years by
5968 assuming conductive cooling from being fully molten to its current
5969 state(1). Although simplistic(2), his result is interesting in the
5970 context of the dramatic cooling that took place after the putative
5971 Moon-forming giant impact, which contributed the final similar to 10
5972 per cent of the Earth's mass(3,4). The rate of accretion and core
5973 segregation on Earth as deduced from the U - Pb system(5) is much
5974 slower than that obtained from Hf - W systematics(6-8), and implies
5975 substantial accretion after the Moon-forming impact, which occurred 45
5976 +/- 5 Myr after the beginning of the Solar System. Here we propose an
5977 explanation for the two timescales(5,9). We suggest that the Hf - W
5978 timescale reflects the principal phase of core-formation before the
5979 giant impact. Crystallization of silicate perovskite in the lower
5980 mantle during this phase produced Fe3+, which was released during the
5981 giant impact(10), and this oxidation resulted in late segregation of
5982 sulphur-rich metal into which Pb dissolved readily, setting the younger
5983 U - Pb age of the Earth. Separation of the latter metal then occurred
5984 30 +/- 10 Myr after the Moon-forming impact. Over this time span, in
5985 surprising agreement with Kelvin's result, the Earth cooled by about
5986 4,000 K in returning from a fully molten to a partially crystalline
5987 state.
5988 C1 Univ Oxford, Dept Earth Sci, Oxford OX1 3PR, England.
5989 Univ Bristol, Dept Earth Sci, Bristol BS8 1RJ, Avon, England.
5990 RP Wood, BJ, Macquarie Univ, Dept Earth & Planetary Sci, N Ryde, NSW 2109,
5991 Australia.
5992 EM bwood@els.mq.edu.au
5993 NR 33
5994 TC 0
5995 PU NATURE PUBLISHING GROUP
5996 PI LONDON
5997 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
5998 SN 0028-0836
5999 J9 NATURE
6000 JI Nature
6001 PD OCT 27
6002 PY 2005
6003 VL 437
6004 IS 7063
6005 BP 1345
6006 EP 1348
6007 PG 4
6008 SC Multidisciplinary Sciences
6009 GA 977UQ
6010 UT ISI:000232829100051
6011 ER
6012
6013 PT J
6014 AU Bernal, D
6015 Donley, JM
6016 Shadwick, RE
6017 Syme, DA
6018 TI Mammal-like muscles power swimming in a cold-water shark
6019 SO NATURE
6020 LA English
6021 DT Article
6022 ID METABOLIC BIOCHEMISTRY; CONTRACTILE PROPERTIES; BODY-TEMPERATURE;
6023 LAMNA-DITROPIS; TUNA; PERFORMANCE; FISH; DESIGN; FIBERS; TUNNEL
6024 AB Effects of temperature on muscle contraction and powering movement are
6025 profound, outwardly obvious, and of great consequence to survival(1,2).
6026 To cope with the effects of environmental temperature fluctuations,
6027 endothermic birds and mammals maintain a relatively warm and constant
6028 body temperature, whereas most fishes and other vertebrates are
6029 ectothermic and conform to their thermal niche, compromising
6030 performance at colder temperatures(2,3). However, within the fishes the
6031 tunas and lamnid sharks deviate from the ectothermic strategy,
6032 maintaining elevated core body temperatures(4,5) that presumably confer
6033 physiological advantages for their roles as fast and continuously
6034 swimming pelagic predators. Here we show that the salmon shark, a
6035 lamnid inhabiting cold, north Pacific waters, has become so specialized
6036 for endothermy that its red, aerobic, locomotor muscles, which power
6037 continuous swimming, seem mammal-like, functioning only within a
6038 markedly elevated temperature range ( 20 - 30 degrees C). These muscles
6039 are ineffectual if exposed to the cool water temperatures, and when
6040 warmed even 10 degrees C above ambient they still produce only 25 - 50%
6041 of the power produced at 26 degrees C. In contrast, the white muscles,
6042 powering burst swimming, do not show such a marked thermal dependence
6043 and work well across a wide range of temperatures.
6044 C1 Univ Massachusetts, Dept Biol, N Dartmouth, MA 02747 USA.
6045 Univ Calif San Diego, Scripps Inst Oceanog, Div Marine Biol Res, La Jolla, CA 92093 USA.
6046 Miracosta Coll, Dept Biol Sci, Oceanside, CA 92056 USA.
6047 Univ Calgary, Dept Biol Sci, Calgary, AB T2N 1N4, Canada.
6048 RP Shadwick, RE, Univ British Columbia, Dept Zool, 6270 Univ Blvd,
6049 Vancouver, BC V6T 1Z4, Canada.
6050 EM dbernal@umassd.edu
6051 shadwick@zoology.ubc.ca
6052 NR 22
6053 TC 0
6054 PU NATURE PUBLISHING GROUP
6055 PI LONDON
6056 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6057 SN 0028-0836
6058 J9 NATURE
6059 JI Nature
6060 PD OCT 27
6061 PY 2005
6062 VL 437
6063 IS 7063
6064 BP 1349
6065 EP 1352
6066 PG 4
6067 SC Multidisciplinary Sciences
6068 GA 977UQ
6069 UT ISI:000232829100052
6070 ER
6071
6072 PT J
6073 AU Hoskin, CJ
6074 Higgie, M
6075 McDonald, KR
6076 Moritz, C
6077 TI Reinforcement drives rapid allopatric speciation
6078 SO NATURE
6079 LA English
6080 DT Article
6081 ID WET TROPICS; COMPARATIVE PHYLOGEOGRAPHY; HYBRID ZONES; AUSTRALIA;
6082 EVOLUTION
6083 AB Allopatric speciation results from geographic isolation between
6084 populations. In the absence of gene flow, reproductive isolation arises
6085 gradually and incidentally as a result of mutation, genetic drift and
6086 the indirect effects of natural selection driving local
6087 adaptation(1-3). In contrast, speciation by reinforcement is driven
6088 directly by natural selection against maladaptive hybridization(1,4).
6089 This gives individuals that choose the traits of their own lineage
6090 greater fitness, potentially leading to rapid speciation between the
6091 lineages(1,4). Reinforcing natural selection on a population of one of
6092 the lineages in a mosaic contact zone could also result in divergence
6093 of the population from the allopatric range of its own lineage outside
6094 the zone(4-6). Here we test this with molecular data, experimental
6095 crosses, field measurements and mate choice experiments in a mosaic
6096 contact zone between two lineages of a rainforest frog. We show that
6097 reinforcing natural selection has resulted in significant premating
6098 isolation of a population in the contact zone not only from the other
6099 lineage but also, incidentally, from the closely related main range of
6100 its own lineage. Thus we show the potential for reinforcement to drive
6101 rapid allopatric speciation.
6102 C1 Univ Queensland, Sch Integrat Biol, St Lucia, Qld 4072, Australia.
6103 Queensland Parks & Wildlife Sci, Atherton, Qld 4883, Australia.
6104 Univ Calif Berkeley, Museum Vertebrate Zool, Berkeley, CA 94720 USA.
6105 RP Hoskin, CJ, Univ Queensland, Sch Integrat Biol, St Lucia, Qld 4072,
6106 Australia.
6107 EM c.hoskin@sib.uq.edu.au
6108 NR 28
6109 TC 0
6110 PU NATURE PUBLISHING GROUP
6111 PI LONDON
6112 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6113 SN 0028-0836
6114 J9 NATURE
6115 JI Nature
6116 PD OCT 27
6117 PY 2005
6118 VL 437
6119 IS 7063
6120 BP 1353
6121 EP 1356
6122 PG 4
6123 SC Multidisciplinary Sciences
6124 GA 977UQ
6125 UT ISI:000232829100053
6126 ER
6127
6128 PT J
6129 AU Silk, JB
6130 Brosnan, SF
6131 Vonk, J
6132 Henrich, J
6133 Povinelli, DJ
6134 Richardson, AS
6135 Lambeth, SP
6136 Mascaro, J
6137 Schapiro, SJ
6138 TI Chimpanzees are indifferent to the welfare of unrelated group members
6139 SO NATURE
6140 LA English
6141 DT Article
6142 ID WILD CHIMPANZEES; MONKEYS; AFFILIATION; INEQUITY; KINSHIP
6143 AB Humans are an unusually prosocial species - we vote, give blood,
6144 recycle, give tithes and punish violators of social norms. Experimental
6145 evidence indicates that people willingly incur costs to help strangers
6146 in anonymous one-shot interactions(1,2), and that altruistic behaviour
6147 is motivated, at least in part, by empathy and concern for the welfare
6148 of others ( hereafter referred to as other-regarding preferences)(1-3).
6149 In contrast, cooperative behaviour in non-human primates is mainly
6150 limited to kin and reciprocating partners, and is virtually never
6151 extended to unfamiliar individuals(4). Here we present experimental
6152 tests of the existence of other-regarding preferences in non-human
6153 primates, and show that chimpanzees ( Pan troglodytes) do not take
6154 advantage of opportunities to deliver benefits to familiar individuals
6155 at no material cost to themselves, suggesting that chimpanzee behaviour
6156 is not motivated by other-regarding preferences. Chimpanzees are among
6157 the primates most likely to demonstrate prosocial behaviours. They
6158 participate in a variety of collective activities, including
6159 territorial patrols, coalitionary aggression, cooperative hunting, food
6160 sharing and joint mate guarding(5-12). Consolation of victims of
6161 aggression(13) and anecdotal accounts of solicitous treatment of
6162 injured individuals suggest that chimpanzees may feel empathy(14,15).
6163 Chimpanzees sometimes reject exchanges in which they receive less
6164 valuable rewards than others, which may be one element of a 'sense of
6165 fairness', but there is no evidence that they are averse to
6166 interactions in which they benefit more than others(16-18).
6167 C1 Univ Calif Los Angeles, Dept Anthropol, Los Angeles, CA 90095 USA.
6168 Emory Univ, Dept Anthropol, Atlanta, GA 30322 USA.
6169 Univ Texas, MD Anderson Canc Ctr, Michale E Keeling Ctr Comparat Med & Res, Bastrop, TX 78602 USA.
6170 Univ Louisiana Lafayette, Cognit Evolut Grp, New Iberia, LA 70560 USA.
6171 RP Silk, JB, Univ Calif Los Angeles, Dept Anthropol, Los Angeles, CA 90095
6172 USA.
6173 EM jsilk@anthro.ucla.edu
6174 NR 29
6175 TC 0
6176 PU NATURE PUBLISHING GROUP
6177 PI LONDON
6178 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6179 SN 0028-0836
6180 J9 NATURE
6181 JI Nature
6182 PD OCT 27
6183 PY 2005
6184 VL 437
6185 IS 7063
6186 BP 1357
6187 EP 1359
6188 PG 3
6189 SC Multidisciplinary Sciences
6190 GA 977UQ
6191 UT ISI:000232829100054
6192 ER
6193
6194 PT J
6195 AU Fraser, JA
6196 Giles, SS
6197 Wenink, EC
6198 Geunes-Boyer, SG
6199 Wright, JR
6200 Diezmann, S
6201 Allen, A
6202 Stajich, JE
6203 Dietrich, FS
6204 Perfect, JR
6205 Heitman, J
6206 TI Same-sex mating and the origin of the Vancouver Island Cryptococcus
6207 gattii outbreak
6208 SO NATURE
6209 LA English
6210 DT Article
6211 ID NEOFORMANS VAR. GATTII; PATHOGENIC YEAST; RECOMBINATION; REPRODUCTION;
6212 TOXOPLASMA; AUSTRALIA; VIRULENCE; CANADA
6213 AB Genealogy can illuminate the evolutionary path of important human
6214 pathogens. In some microbes, strict clonal reproduction predominates,
6215 as with the worldwide dissemination of Mycobacterium leprae, the cause
6216 of leprosy(1). In other pathogens, sexual reproduction yields clones
6217 with novel attributes, for example, enabling the efficient, oral
6218 transmission of the parasite Toxoplasma gondii(2). However, the roles
6219 of clonal or sexual propagation in the origins of many other microbial
6220 pathogen outbreaks remain unknown, like the recent fungal
6221 meningoencephalitis outbreak on Vancouver Island, Canada, caused by
6222 Cryptococcus gattii(3). Here we show that the C. gattii outbreak
6223 isolates comprise two distinct genotypes. The majority of isolates are
6224 hypervirulent and have an identical genotype that is unique to the
6225 Pacific Northwest. A minority of the isolates are significantly less
6226 virulent and share an identical genotype with fertile isolates from an
6227 Australian recombining population. Genotypic analysis reveals evidence
6228 of sexual reproduction, in which the majority genotype is the predicted
6229 offspring. However, instead of the classic a - alpha sexual cycle, the
6230 majority outbreak clone appears to have descended from two alpha
6231 mating-type parents. Analysis of nuclear content revealed a diploid
6232 environmental isolate homozygous for the major genotype, an
6233 intermediate produced during same-sex mating. These studies demonstrate
6234 how cryptic same-sex reproduction can enable expansion of a human
6235 pathogen to a new geographical niche and contribute to the ongoing
6236 production of infectious spores. This has implications for the
6237 emergence of other microbial pathogens and inbreeding in host range
6238 expansion in the fungal and other kingdoms.
6239 C1 Duke Univ, Med Ctr, Dept Mol Genet & Microbiol, Durham, NC 27710 USA.
6240 Duke Univ, Med Ctr, Howard Hughes Med Inst, Durham, NC 27710 USA.
6241 Duke Univ, Med Ctr, Dept Cell Biol, Durham, NC 27710 USA.
6242 Duke Univ, Med Ctr, Inst Genome Sci & Policy, Durham, NC 27710 USA.
6243 Duke Univ, Med Ctr, Dept Med, Durham, NC 27710 USA.
6244 Duke Univ, Med Ctr, Dept Pharmacol & Canc Biol, Durham, NC 27710 USA.
6245 RP Heitman, J, Duke Univ, Med Ctr, Dept Mol Genet & Microbiol, Durham, NC
6246 27710 USA.
6247 EM heitm001@duke.edu
6248 NR 30
6249 TC 0
6250 PU NATURE PUBLISHING GROUP
6251 PI LONDON
6252 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6253 SN 0028-0836
6254 J9 NATURE
6255 JI Nature
6256 PD OCT 27
6257 PY 2005
6258 VL 437
6259 IS 7063
6260 BP 1360
6261 EP 1364
6262 PG 5
6263 SC Multidisciplinary Sciences
6264 GA 977UQ
6265 UT ISI:000232829100055
6266 ER
6267
6268 PT J
6269 AU Cheung, VG
6270 Spielman, RS
6271 Ewens, KG
6272 Weber, TM
6273 Morley, M
6274 Burdick, JT
6275 TI Mapping determinants of human gene expression by regional and
6276 genome-wide association
6277 SO NATURE
6278 LA English
6279 DT Article
6280 ID COMPLEX TRAITS; DISEASE; DISSECTION; FUTURE
6281 AB To study the genetic basis of natural variation in gene expression, we
6282 previously carried out genome-wide linkage analysis and mapped the
6283 determinants of similar to 1,000 expression phenotypes(1). In the
6284 present study, we carried out association analysis with dense sets of
6285 single-nucleotide polymorphism ( SNP) markers from the International
6286 HapMap Project(2). For 374 phenotypes, the association study was
6287 performed with markers only from regions with strong linkage evidence;
6288 these regions all mapped close to the expressed gene. For a subset of
6289 27 phenotypes, analysis of genome-wide association was performed with >
6290 770,000 markers. The association analysis with markers under the
6291 linkage peaks confirmed the linkage results and narrowed the candidate
6292 regulatory regions for many phenotypes with strong linkage evidence.
6293 The genome-wide association analysis yielded highly significant results
6294 that point to the same locations as the genome scans for about 50% of
6295 the phenotypes. For one candidate determinant, we carried out
6296 functional analyses and confirmed the variation in cis-acting
6297 regulatory activity. Our findings suggest that association studies with
6298 dense SNP maps will identify susceptibility loci or other determinants
6299 for some complex traits or diseases.
6300 C1 Univ Penn, Dept Pediat, Philadelphia, PA 19104 USA.
6301 Univ Penn, Dept Genet, Philadelphia, PA 19104 USA.
6302 Childrens Hosp Philadelphia, Philadelphia, PA 19104 USA.
6303 RP Cheung, VG, Univ Penn, Dept Pediat, Philadelphia, PA 19104 USA.
6304 EM vcheung@mail.med.upenn.edu
6305 spielman@pobox.upenn.edu
6306 NR 22
6307 TC 1
6308 PU NATURE PUBLISHING GROUP
6309 PI LONDON
6310 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6311 SN 0028-0836
6312 J9 NATURE
6313 JI Nature
6314 PD OCT 27
6315 PY 2005
6316 VL 437
6317 IS 7063
6318 BP 1365
6319 EP 1369
6320 PG 5
6321 SC Multidisciplinary Sciences
6322 GA 977UQ
6323 UT ISI:000232829100056
6324 ER
6325
6326 PT J
6327 AU Lie, DC
6328 Colamarino, SA
6329 Song, HJ
6330 Desire, L
6331 Mira, H
6332 Consiglio, A
6333 Lein, ES
6334 Jessberger, S
6335 Lansford, H
6336 Dearie, AR
6337 Gage, FH
6338 TI Wnt signalling regulates adult hippocampal neurogenesis
6339 SO NATURE
6340 LA English
6341 DT Article
6342 ID NEURAL STEM-CELLS; GENE-TRANSFER; IN-VITRO; BRAIN; DIFFERENTIATION;
6343 PROLIFERATION; EXPRESSION; TRANSCRIPTION; MAINTENANCE; LINKS
6344 AB The generation of new neurons from neural stem cells is restricted to
6345 two regions of the adult mammalian central nervous system: the
6346 subventricular zone of the lateral ventricle, and the subgranular zone
6347 of the hippocampal dentate gyrus(1). In both regions, signals provided
6348 by the microenvironment regulate the maintenance, proliferation and
6349 neuronal fate commitment of the local stem cell population(1). The
6350 identity of these signals is largely unknown. Here we show that adult
6351 hippocampal stem/progenitor cells (AHPs) express receptors and
6352 signalling components for Wnt proteins, which are key regulators of
6353 neural stem cell behaviour in embryonic development(2). We also show
6354 that the Wnt/beta-catenin pathway is active and that Wnt3 is expressed
6355 in the hippocampal neurogenic niche. Overexpression of Wnt3 is
6356 sufficient to increase neurogenesis from AHPs in vitro and in vivo. By
6357 contrast, blockade of Wnt signalling reduces neurogenesis from AHPs in
6358 vitro and abolishes neurogenesis almost completely in vivo. Our data
6359 show that Wnt signalling is a principal regulator of adult hippocampal
6360 neurogenesis and provide evidence that Wnt proteins have a role in
6361 adult hippocampal function.
6362 C1 Salk Inst Biol Studies, Genet Lab, La Jolla, CA 92037 USA.
6363 GSF Natl Res Ctr Environm & Hlth, Inst Dev Genet, D-85764 Neuherberg, Germany.
6364 Johns Hopkins Univ, Sch Med, Dept Neurol, Inst Cell Engn, Baltimore, MD 21205 USA.
6365 Johns Hopkins Univ, Sch Med, Dept Neurosci, Inst Cell Engn, Baltimore, MD 21205 USA.
6366 RP Gage, FH, Salk Inst Biol Studies, Genet Lab, 10010 N Torrey Pines Rd,
6367 La Jolla, CA 92037 USA.
6368 EM chichung.lie@gsf.de
6369 gage@salk.edu
6370 NR 27
6371 TC 0
6372 PU NATURE PUBLISHING GROUP
6373 PI LONDON
6374 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6375 SN 0028-0836
6376 J9 NATURE
6377 JI Nature
6378 PD OCT 27
6379 PY 2005
6380 VL 437
6381 IS 7063
6382 BP 1370
6383 EP 1375
6384 PG 6
6385 SC Multidisciplinary Sciences
6386 GA 977UQ
6387 UT ISI:000232829100057
6388 ER
6389
6390 PT J
6391 AU Dollar, GL
6392 Weber, U
6393 Mlodzik, M
6394 Sokol, SY
6395 TI Regulation of Lethal giant larvae by Dishevelled
6396 SO NATURE
6397 LA English
6398 DT Article
6399 ID ASYMMETRIC CELL-DIVISION; POLARITY; DROSOPHILA; APKC; COMPLEX;
6400 GASTRULATION; LOCALIZATION; POLARIZATION; NEUROBLAST; HOMOLOG
6401 AB The establishment of polarity in many cell types depends on Lgl, the
6402 tumour suppressor product of lethal giant larvae, which is involved in
6403 basolateral protein targeting(1-4). The conserved complex of Par3, Par6
6404 and atypical protein kinase C5-8 phosphorylates and inactivates Lgl at
6405 the apical surface; however, the signalling mechanisms that coordinate
6406 cell polarization in development are not well defined. Here we show
6407 that a vertebrate homologue of Lgl associates with Dishevelled, an
6408 essential mediator of Wnt signalling, and that Dishevelled regulates
6409 the localization of Lgl in Xenopus ectoderm and Drosophila follicular
6410 epithelium. We show that both Lgl and Dsh are required for normal
6411 apical - basal polarity of Xenopus ectodermal cells. In addition, we
6412 show that the Wnt receptor Frizzled 8, but not Frizzled 7, causes Lgl
6413 to dissociate from the cortex with the concomitant loss of its activity
6414 in vivo. These findings suggest a molecular basis for the regulation of
6415 cell polarity by Frizzled and Dishevelled.
6416 C1 Mt Sinai Sch Med, Dept Mol Cell & Dev Biol, New York, NY 10029 USA.
6417 RP Sokol, SY, Mt Sinai Sch Med, Dept Mol Cell & Dev Biol, Box 1020,1
6418 Gustave L Levy Pl, New York, NY 10029 USA.
6419 EM sergei.sokol@mssm.edu
6420 NR 30
6421 TC 0
6422 PU NATURE PUBLISHING GROUP
6423 PI LONDON
6424 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6425 SN 0028-0836
6426 J9 NATURE
6427 JI Nature
6428 PD OCT 27
6429 PY 2005
6430 VL 437
6431 IS 7063
6432 BP 1376
6433 EP 1380
6434 PG 5
6435 SC Multidisciplinary Sciences
6436 GA 977UQ
6437 UT ISI:000232829100058
6438 ER
6439
6440 PT J
6441 AU Hirano, Y
6442 Hendil, KB
6443 Yashiroda, H
6444 Iemura, S
6445 Nagane, R
6446 Hioki, Y
6447 Natsume, T
6448 Tanaka, K
6449 Murata, S
6450 TI A heterodimeric complex that promotes the assembly of mammalian 20S
6451 proteasomes
6452 SO NATURE
6453 LA English
6454 DT Article
6455 ID BETA-SUBUNITS; MATURATION; RESOLUTION; PROTEIN
6456 AB The 26S proteasome is a multisubunit protease responsible for regulated
6457 proteolysis in eukaryotic cells(1,2). It comprises one catalytic 20S
6458 proteasome and two axially positioned 19S regulatory complexes(3). The
6459 20S proteasome is composed of 28 subunits arranged in a cylindrical
6460 particle as four heteroheptameric rings,
6461 alpha(1-7)beta(1-7)beta(1-7)alpha(1-7) ( refs 4, 5), but the mechanism
6462 responsible for the assembly of such a complex structure remains
6463 elusive. Here we report two chaperones, designated proteasome
6464 assembling chaperone-1 (PAC1) and PAC2, that are involved in the
6465 maturation of mammalian 20S proteasomes. PAC1 and PAC2 associate as
6466 heterodimers with proteasome precursors and are degraded after
6467 formation of the 20S proteasome is completed. Overexpression of PAC1 or
6468 PAC2 accelerates the formation of precursor proteasomes, whereas
6469 knockdown by short interfering RNA impairs it, resulting in poor
6470 maturation of 20S proteasomes. Furthermore, the PAC complex provides a
6471 scaffold for alpha-ring formation and keeps the alpha-rings competent
6472 for the subsequent formation of half-proteasomes. Thus, our results
6473 identify a mechanism for the correct assembly of 20S proteasomes.
6474 C1 Tokyo Metropolitan Inst Med Sci, Lab Frontier Sci, Core Technol & Res Ctr, Bunkyo Ku, Tokyo 1138613, Japan.
6475 Univ Copenhagen, Inst Mol Biol & Physiol, DK-2100 Copenhagen, Denmark.
6476 Natl Inst Adv Ind SCi & Technol, Biol Informat Res Ctr, Kohtoh Ku, Tokyo 1350064, Japan.
6477 Japan Sci & Technol Agcy, PRESTO, Kawaguchi, Saitama 3320012, Japan.
6478 RP Murata, S, Tokyo Metropolitan Inst Med Sci, Lab Frontier Sci, Core
6479 Technol & Res Ctr, Bunkyo Ku, Tokyo 1138613, Japan.
6480 EM tanakak@rinshoken.or.jp
6481 smurata@rinshoken.or.jp
6482 NR 23
6483 TC 0
6484 PU NATURE PUBLISHING GROUP
6485 PI LONDON
6486 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6487 SN 0028-0836
6488 J9 NATURE
6489 JI Nature
6490 PD OCT 27
6491 PY 2005
6492 VL 437
6493 IS 7063
6494 BP 1381
6495 EP 1385
6496 PG 5
6497 SC Multidisciplinary Sciences
6498 GA 977UQ
6499 UT ISI:000232829100059
6500 ER
6501
6502 PT J
6503 AU Loppin, B
6504 Bonnefoy, E
6505 Anselme, C
6506 Laurencon, A
6507 Karr, TL
6508 Couble, P
6509 TI The histone H3.3 chaperone HIRA is essential for chromatin assembly in
6510 the male pronucleus
6511 SO NATURE
6512 LA English
6513 DT Article
6514 ID DROSOPHILA-MELANOGASTER; DNA-SYNTHESIS; MOUSE ZYGOTE; VARIANT H3.3;
6515 GENE; FERTILIZATION; METHYLATION; EXPRESSION; SESAME; INHERITANCE
6516 AB In sexually reproducing animals, a crucial step in zygote formation is
6517 the decondensation of the fertilizing spermnucleus into a DNA
6518 replication-competent male pronucleus. Genome-wide nucleosome assembly
6519 on paternal DNA implies the replacement of sperm chromosomal proteins,
6520 such as protamines, by maternally provided histones(1,2). This
6521 fundamental process is specifically impaired in sesame (ssm), a unique
6522 Drosophila maternal effect mutant that prevents male pronucleus
6523 formation(3). Here we show that ssm is a point mutation in the Hira
6524 gene, thus demonstrating that the histone chaperone protein HIRA is
6525 required for nucleosome assembly during sperm nucleus decondensation.
6526 In vertebrates, HIRA has recently been shown to be critical for a
6527 nucleosome assembly pathway independent of DNA synthesis that
6528 specifically involves the H3.3 histone variant(4,5). We also show that
6529 nucleosomes containing H3.3, and not H3, are specifically assembled in
6530 paternal Drosophila chromatin before the first round of DNA
6531 replication. The exclusive marking of paternal chromosomes with H3.3
6532 represents a primary epigenetic distinction between parental genomes in
6533 the zygote, and underlines an important consequence of the critical and
6534 highly specialized function of HIRA at fertilization.
6535 C1 Univ Lyon 1, CNRS, UMR 5534, Ctr Genet Mol & Cellulaire, F-69622 Villeurbanne, France.
6536 Inst Natl Sci Appl, INRA, UMR, F-69621 Villeurbanne, France.
6537 Univ Bath, Dept Biol & Biochem, Bath BA2 7AY, Avon, England.
6538 RP Loppin, B, Univ Lyon 1, CNRS, UMR 5534, Ctr Genet Mol & Cellulaire,
6539 F-69622 Villeurbanne, France.
6540 EM loppin@cgmc.univ-lyon1.fr
6541 NR 29
6542 TC 0
6543 PU NATURE PUBLISHING GROUP
6544 PI LONDON
6545 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6546 SN 0028-0836
6547 J9 NATURE
6548 JI Nature
6549 PD OCT 27
6550 PY 2005
6551 VL 437
6552 IS 7063
6553 BP 1386
6554 EP 1390
6555 PG 5
6556 SC Multidisciplinary Sciences
6557 GA 977UQ
6558 UT ISI:000232829100060
6559 ER
6560
6561 PT J
6562 AU Nogueira, S
6563 TI Stranger in the night
6564 SO NATURE
6565 LA English
6566 DT Editorial Material
6567 NR 0
6568 TC 0
6569 PU NATURE PUBLISHING GROUP
6570 PI LONDON
6571 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6572 SN 0028-0836
6573 J9 NATURE
6574 JI Nature
6575 PD OCT 27
6576 PY 2005
6577 VL 437
6578 IS 7063
6579 BP 1396
6580 EP 1396
6581 PG 1
6582 SC Multidisciplinary Sciences
6583 GA 977UQ
6584 UT ISI:000232829100061
6585 ER
6586
6587 PT J
6588 AU [Anon]
6589 TI Every little helps
6590 SO NATURE
6591 LA English
6592 DT Editorial Material
6593 NR 1
6594 TC 0
6595 PU NATURE PUBLISHING GROUP
6596 PI LONDON
6597 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6598 SN 0028-0836
6599 J9 NATURE
6600 JI Nature
6601 PD OCT 20
6602 PY 2005
6603 VL 437
6604 IS 7062
6605 BP 1065
6606 EP 1065
6607 PG 1
6608 SC Multidisciplinary Sciences
6609 GA 975KD
6610 UT ISI:000232660500001
6611 ER
6612
6613 PT J
6614 AU [Anon]
6615 TI An unhealthy practice
6616 SO NATURE
6617 LA English
6618 DT Editorial Material
6619 NR 1
6620 TC 0
6621 PU NATURE PUBLISHING GROUP
6622 PI LONDON
6623 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6624 SN 0028-0836
6625 J9 NATURE
6626 JI Nature
6627 PD OCT 20
6628 PY 2005
6629 VL 437
6630 IS 7062
6631 BP 1065
6632 EP 1066
6633 PG 2
6634 SC Multidisciplinary Sciences
6635 GA 975KD
6636 UT ISI:000232660500002
6637 ER
6638
6639 PT J
6640 AU [Anon]
6641 TI Grand ambition
6642 SO NATURE
6643 LA English
6644 DT Editorial Material
6645 NR 1
6646 TC 0
6647 PU NATURE PUBLISHING GROUP
6648 PI LONDON
6649 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6650 SN 0028-0836
6651 J9 NATURE
6652 JI Nature
6653 PD OCT 20
6654 PY 2005
6655 VL 437
6656 IS 7062
6657 BP 1066
6658 EP 1066
6659 PG 1
6660 SC Multidisciplinary Sciences
6661 GA 975KD
6662 UT ISI:000232660500003
6663 ER
6664
6665 PT J
6666 AU Taylor, R
6667 Giles, J
6668 TI Cash interests taint drug advice
6669 SO NATURE
6670 LA English
6671 DT News Item
6672 NR 2
6673 TC 1
6674 PU NATURE PUBLISHING GROUP
6675 PI LONDON
6676 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6677 SN 0028-0836
6678 J9 NATURE
6679 JI Nature
6680 PD OCT 20
6681 PY 2005
6682 VL 437
6683 IS 7062
6684 BP 1070
6685 EP 1071
6686 PG 2
6687 SC Multidisciplinary Sciences
6688 GA 975KD
6689 UT ISI:000232660500004
6690 ER
6691
6692 PT J
6693 AU Reichhardt, T
6694 TI Express delivery to Venus
6695 SO NATURE
6696 LA English
6697 DT News Item
6698 NR 0
6699 TC 0
6700 PU NATURE PUBLISHING GROUP
6701 PI LONDON
6702 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6703 SN 0028-0836
6704 J9 NATURE
6705 JI Nature
6706 PD OCT 20
6707 PY 2005
6708 VL 437
6709 IS 7062
6710 BP 1071
6711 EP 1071
6712 PG 1
6713 SC Multidisciplinary Sciences
6714 GA 975KD
6715 UT ISI:000232660500005
6716 ER
6717
6718 PT J
6719 AU Butler, D
6720 TI Quake aid hampered by ban on web shots
6721 SO NATURE
6722 LA English
6723 DT News Item
6724 NR 0
6725 TC 0
6726 PU NATURE PUBLISHING GROUP
6727 PI LONDON
6728 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6729 SN 0028-0836
6730 J9 NATURE
6731 JI Nature
6732 PD OCT 20
6733 PY 2005
6734 VL 437
6735 IS 7062
6736 BP 1072
6737 EP 1073
6738 PG 2
6739 SC Multidisciplinary Sciences
6740 GA 975KD
6741 UT ISI:000232660500006
6742 ER
6743
6744 PT J
6745 AU Check, E
6746 TI Biologists forced to reassess embryo test
6747 SO NATURE
6748 LA English
6749 DT News Item
6750 NR 0
6751 TC 0
6752 PU NATURE PUBLISHING GROUP
6753 PI LONDON
6754 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6755 SN 0028-0836
6756 J9 NATURE
6757 JI Nature
6758 PD OCT 20
6759 PY 2005
6760 VL 437
6761 IS 7062
6762 BP 1075
6763 EP 1075
6764 PG 1
6765 SC Multidisciplinary Sciences
6766 GA 975KD
6767 UT ISI:000232660500007
6768 ER
6769
6770 PT J
6771 AU Peplow, M
6772 Reichhardt, T
6773 TI China launches plans for space exploration as taikonauts touch down
6774 SO NATURE
6775 LA English
6776 DT News Item
6777 NR 0
6778 TC 0
6779 PU NATURE PUBLISHING GROUP
6780 PI LONDON
6781 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6782 SN 0028-0836
6783 J9 NATURE
6784 JI Nature
6785 PD OCT 20
6786 PY 2005
6787 VL 437
6788 IS 7062
6789 BP 1075
6790 EP 1075
6791 PG 1
6792 SC Multidisciplinary Sciences
6793 GA 975KD
6794 UT ISI:000232660500008
6795 ER
6796
6797 PT J
6798 AU Dennis, C
6799 Check, E
6800 TI 'Ethical' routes to stem cells highlight political divide
6801 SO NATURE
6802 LA English
6803 DT News Item
6804 NR 2
6805 TC 0
6806 PU NATURE PUBLISHING GROUP
6807 PI LONDON
6808 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6809 SN 0028-0836
6810 J9 NATURE
6811 JI Nature
6812 PD OCT 20
6813 PY 2005
6814 VL 437
6815 IS 7062
6816 BP 1076
6817 EP 1077
6818 PG 2
6819 SC Multidisciplinary Sciences
6820 GA 975KD
6821 UT ISI:000232660500009
6822 ER
6823
6824 PT J
6825 AU Dennis, C
6826 TI Korea launches network to share cloning information
6827 SO NATURE
6828 LA English
6829 DT News Item
6830 NR 0
6831 TC 1
6832 PU NATURE PUBLISHING GROUP
6833 PI LONDON
6834 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6835 SN 0028-0836
6836 J9 NATURE
6837 JI Nature
6838 PD OCT 20
6839 PY 2005
6840 VL 437
6841 IS 7062
6842 BP 1077
6843 EP 1077
6844 PG 1
6845 SC Multidisciplinary Sciences
6846 GA 975KD
6847 UT ISI:000232660500010
6848 ER
6849
6850 PT J
6851 AU Cyranoski, D
6852 TI Japan jumps towards personalized medicine (vol 437, pg 796, 2005)
6853 SO NATURE
6854 LA English
6855 DT Correction
6856 NR 1
6857 TC 0
6858 PU NATURE PUBLISHING GROUP
6859 PI LONDON
6860 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6861 SN 0028-0836
6862 J9 NATURE
6863 JI Nature
6864 PD OCT 20
6865 PY 2005
6866 VL 437
6867 IS 7062
6868 BP 1079
6869 EP 1079
6870 PG 1
6871 SC Multidisciplinary Sciences
6872 GA 975KD
6873 UT ISI:000232660500011
6874 ER
6875
6876 PT J
6877 AU [Anon]
6878 TI Responding to uncertainty (vol 437, pg 1, 2005)
6879 SO NATURE
6880 LA English
6881 DT Correction
6882 NR 1
6883 TC 0
6884 PU NATURE PUBLISHING GROUP
6885 PI LONDON
6886 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6887 SN 0028-0836
6888 J9 NATURE
6889 JI Nature
6890 PD OCT 20
6891 PY 2005
6892 VL 437
6893 IS 7062
6894 BP 1079
6895 EP 1079
6896 PG 1
6897 SC Multidisciplinary Sciences
6898 GA 975KD
6899 UT ISI:000232660500012
6900 ER
6901
6902 PT J
6903 AU Hogan, J
6904 TI Astrobiology: Life at the cutting edge
6905 SO NATURE
6906 LA English
6907 DT News Item
6908 NR 0
6909 TC 0
6910 PU NATURE PUBLISHING GROUP
6911 PI LONDON
6912 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6913 SN 0028-0836
6914 J9 NATURE
6915 JI Nature
6916 PD OCT 20
6917 PY 2005
6918 VL 437
6919 IS 7062
6920 BP 1080
6921 EP 1082
6922 PG 3
6923 SC Multidisciplinary Sciences
6924 GA 975KD
6925 UT ISI:000232660500014
6926 ER
6927
6928 PT J
6929 AU [Anon]
6930 TI First drill on Mars
6931 SO NATURE
6932 LA English
6933 DT News Item
6934 NR 0
6935 TC 0
6936 PU NATURE PUBLISHING GROUP
6937 PI LONDON
6938 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6939 SN 0028-0836
6940 J9 NATURE
6941 JI Nature
6942 PD OCT 20
6943 PY 2005
6944 VL 437
6945 IS 7062
6946 BP 1082
6947 EP 1082
6948 PG 1
6949 SC Multidisciplinary Sciences
6950 GA 975KD
6951 UT ISI:000232660500015
6952 ER
6953
6954 PT J
6955 AU Check, E
6956 TI Human genome: Patchwork people
6957 SO NATURE
6958 LA English
6959 DT News Item
6960 ID SEGMENTAL DUPLICATIONS
6961 NR 12
6962 TC 0
6963 PU NATURE PUBLISHING GROUP
6964 PI LONDON
6965 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6966 SN 0028-0836
6967 J9 NATURE
6968 JI Nature
6969 PD OCT 20
6970 PY 2005
6971 VL 437
6972 IS 7062
6973 BP 1084
6974 EP 1086
6975 PG 3
6976 SC Multidisciplinary Sciences
6977 GA 975KD
6978 UT ISI:000232660500016
6979 ER
6980
6981 PT J
6982 AU Cyranoski, D
6983 TI Venture capitalists tackle Chinese hurdles
6984 SO NATURE
6985 LA English
6986 DT News Item
6987 NR 0
6988 TC 0
6989 PU NATURE PUBLISHING GROUP
6990 PI LONDON
6991 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
6992 SN 0028-0836
6993 J9 NATURE
6994 JI Nature
6995 PD OCT 20
6996 PY 2005
6997 VL 437
6998 IS 7062
6999 BP 1087
7000 EP 1087
7001 PG 1
7002 SC Multidisciplinary Sciences
7003 GA 975KD
7004 UT ISI:000232660500017
7005 ER
7006
7007 PT J
7008 AU Mousseau, TA
7009 Nelson, N
7010 Shestopalov, V
7011 TI Don't underestimate the death rate from Chernobyl
7012 SO NATURE
7013 LA English
7014 DT Letter
7015 C1 Univ S Carolina, Sch Environm, Columbia, SC 29208 USA.
7016 Ukrainian Natl Acad Sci, Radioecol Ctr, UA-01054 Kiev, Ukraine.
7017 RP Mousseau, TA, Univ S Carolina, Sch Environm, Columbia, SC 29208 USA.
7018 NR 1
7019 TC 0
7020 PU NATURE PUBLISHING GROUP
7021 PI LONDON
7022 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7023 SN 0028-0836
7024 J9 NATURE
7025 JI Nature
7026 PD OCT 20
7027 PY 2005
7028 VL 437
7029 IS 7062
7030 BP 1089
7031 EP 1089
7032 PG 1
7033 SC Multidisciplinary Sciences
7034 GA 975KD
7035 UT ISI:000232660500018
7036 ER
7037
7038 PT J
7039 AU Cowie, J
7040 TI Media reports: call for a working party is unrealistic
7041 SO NATURE
7042 LA English
7043 DT Letter
7044 NR 1
7045 TC 0
7046 PU NATURE PUBLISHING GROUP
7047 PI LONDON
7048 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7049 SN 0028-0836
7050 J9 NATURE
7051 JI Nature
7052 PD OCT 20
7053 PY 2005
7054 VL 437
7055 IS 7062
7056 BP 1089
7057 EP 1089
7058 PG 1
7059 SC Multidisciplinary Sciences
7060 GA 975KD
7061 UT ISI:000232660500019
7062 ER
7063
7064 PT J
7065 AU Moss, S
7066 TI Main effect of bureaucracy is to reduce productivity
7067 SO NATURE
7068 LA English
7069 DT Letter
7070 C1 Univ Coll London, Inst Ophthalmol, Div Cell Biol, Ashton Chair Biomed Res, London EC1V 9EL, England.
7071 RP Moss, S, Univ Coll London, Inst Ophthalmol, Div Cell Biol, Ashton Chair
7072 Biomed Res, 11-43 Bath St, London EC1V 9EL, England.
7073 NR 1
7074 TC 0
7075 PU NATURE PUBLISHING GROUP
7076 PI LONDON
7077 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7078 SN 0028-0836
7079 J9 NATURE
7080 JI Nature
7081 PD OCT 20
7082 PY 2005
7083 VL 437
7084 IS 7062
7085 BP 1089
7086 EP 1089
7087 PG 1
7088 SC Multidisciplinary Sciences
7089 GA 975KD
7090 UT ISI:000232660500020
7091 ER
7092
7093 PT J
7094 AU Zupp, J
7095 TI Concern at animal research should not be dismissed
7096 SO NATURE
7097 LA English
7098 DT Letter
7099 RP Zupp, J, CCBC-F520,7201 Rossville Blvd, Baltimore, MD 21237 USA.
7100 NR 1
7101 TC 0
7102 PU NATURE PUBLISHING GROUP
7103 PI LONDON
7104 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7105 SN 0028-0836
7106 J9 NATURE
7107 JI Nature
7108 PD OCT 20
7109 PY 2005
7110 VL 437
7111 IS 7062
7112 BP 1089
7113 EP 1089
7114 PG 1
7115 SC Multidisciplinary Sciences
7116 GA 975KD
7117 UT ISI:000232660500021
7118 ER
7119
7120 PT J
7121 AU Gowers, T
7122 TI Euclid in the rainforest: Discovering universal truth in logic and math
7123 SO NATURE
7124 LA English
7125 DT Book Review
7126 C1 Univ Cambridge, Ctr Math Sci, Cambridge CB3 0WB, England.
7127 RP Gowers, T, Univ Cambridge, Ctr Math Sci, Wilberforce Rd, Cambridge CB3
7128 0WB, England.
7129 NR 1
7130 TC 0
7131 PU NATURE PUBLISHING GROUP
7132 PI LONDON
7133 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7134 SN 0028-0836
7135 J9 NATURE
7136 JI Nature
7137 PD OCT 20
7138 PY 2005
7139 VL 437
7140 IS 7062
7141 BP 1092
7142 EP 1092
7143 PG 1
7144 SC Multidisciplinary Sciences
7145 GA 975KD
7146 UT ISI:000232660500022
7147 ER
7148
7149 PT J
7150 AU Nicotera, P
7151 TI The poison paradox: Chemicals as friends and foes
7152 SO NATURE
7153 LA English
7154 DT Book Review
7155 C1 Univ Leicester, Toxicol Unit, Leicester LE1 9HN, Leics, England.
7156 RP Nicotera, P, Univ Leicester, Toxicol Unit, Hodgkin Bldg,Lancaster Rd,
7157 Leicester LE1 9HN, Leics, England.
7158 NR 1
7159 TC 0
7160 PU NATURE PUBLISHING GROUP
7161 PI LONDON
7162 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7163 SN 0028-0836
7164 J9 NATURE
7165 JI Nature
7166 PD OCT 20
7167 PY 2005
7168 VL 437
7169 IS 7062
7170 BP 1093
7171 EP 1093
7172 PG 1
7173 SC Multidisciplinary Sciences
7174 GA 975KD
7175 UT ISI:000232660500023
7176 ER
7177
7178 PT J
7179 AU Wilczek, F
7180 TI An explorer and surveyor - Hermann Weyl
7181 SO NATURE
7182 LA English
7183 DT Biographical-Item
7184 C1 MIT, Ctr Theoret Phys, Cambridge, MA 02142 USA.
7185 RP Wilczek, F, MIT, Ctr Theoret Phys, Cambridge, MA 02142 USA.
7186 NR 2
7187 TC 0
7188 PU NATURE PUBLISHING GROUP
7189 PI LONDON
7190 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7191 SN 0028-0836
7192 J9 NATURE
7193 JI Nature
7194 PD OCT 20
7195 PY 2005
7196 VL 437
7197 IS 7062
7198 BP 1095
7199 EP 1095
7200 PG 1
7201 SC Multidisciplinary Sciences
7202 GA 975KD
7203 UT ISI:000232660500024
7204 ER
7205
7206 PT J
7207 AU Sinden, RR
7208 TI Molecular biology - DNA twists and flips
7209 SO NATURE
7210 LA English
7211 DT Editorial Material
7212 ID PROMOTER; BINDING
7213 C1 Texas A&M Univ Syst Hlth Sci Ctr, Inst Biosci & Technol, Ctr Genome Res, Lab DNA Struct & Mutagenesis, Houston, TX 77030 USA.
7214 RP Sinden, RR, Texas A&M Univ Syst Hlth Sci Ctr, Inst Biosci & Technol,
7215 Ctr Genome Res, Lab DNA Struct & Mutagenesis, 2121 W Holcombe Blvd,
7216 Houston, TX 77030 USA.
7217 EM rsinden@ibt.tamhsc.edu
7218 NR 15
7219 TC 0
7220 PU NATURE PUBLISHING GROUP
7221 PI LONDON
7222 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7223 SN 0028-0836
7224 J9 NATURE
7225 JI Nature
7226 PD OCT 20
7227 PY 2005
7228 VL 437
7229 IS 7062
7230 BP 1097
7231 EP 1098
7232 PG 2
7233 SC Multidisciplinary Sciences
7234 GA 975KD
7235 UT ISI:000232660500025
7236 ER
7237
7238 PT J
7239 AU Haruta, M
7240 TI Catalysis - Gold rush
7241 SO NATURE
7242 LA English
7243 DT Editorial Material
7244 ID OXIDATION; CARBON
7245 C1 Tokyo Metropolitan Univ, Fac Urban Environm Sci, Mat Chem Course, Tokyo 1920397, Japan.
7246 RP Haruta, M, Tokyo Metropolitan Univ, Fac Urban Environm Sci, Mat Chem
7247 Course, 1-1 Minami Osawa, Tokyo 1920397, Japan.
7248 EM haruta-masatake@center.tmu.ac.jp
7249 NR 12
7250 TC 0
7251 PU NATURE PUBLISHING GROUP
7252 PI LONDON
7253 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7254 SN 0028-0836
7255 J9 NATURE
7256 JI Nature
7257 PD OCT 20
7258 PY 2005
7259 VL 437
7260 IS 7062
7261 BP 1098
7262 EP 1099
7263 PG 2
7264 SC Multidisciplinary Sciences
7265 GA 975KD
7266 UT ISI:000232660500026
7267 ER
7268
7269 PT J
7270 AU Budd, GE
7271 Telford, MJ
7272 TI Evolution - Along came a sea spider
7273 SO NATURE
7274 LA English
7275 DT Editorial Material
7276 ID ARTHROPODS; MORPHOLOGY; EXPRESSION; PANTOPODA; BODY
7277 C1 Univ Uppsala, Dept Earth Sci, SE-75236 Uppsala, Sweden.
7278 Univ Coll London, Dept Biol, London WC1E 6BT, England.
7279 RP Budd, GE, Univ Uppsala, Dept Earth Sci, Norbyvagen 22, SE-75236
7280 Uppsala, Sweden.
7281 EM graham.budd@pal.uu.se
7282 m.telford@ucl.ac.uk
7283 NR 10
7284 TC 0
7285 PU NATURE PUBLISHING GROUP
7286 PI LONDON
7287 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7288 SN 0028-0836
7289 J9 NATURE
7290 JI Nature
7291 PD OCT 20
7292 PY 2005
7293 VL 437
7294 IS 7062
7295 BP 1099
7296 EP +
7297 PG 3
7298 SC Multidisciplinary Sciences
7299 GA 975KD
7300 UT ISI:000232660500027
7301 ER
7302
7303 PT J
7304 AU DeKieviet, M
7305 Schmiedmayer, J
7306 TI Quantum physics - Atom waves in passing
7307 SO NATURE
7308 LA English
7309 DT Editorial Material
7310 C1 Univ Heidelberg, Inst Phys, D-69120 Heidelberg, Germany.
7311 RP DeKieviet, M, Univ Heidelberg, Inst Phys, Philosophenweg 12, D-69120
7312 Heidelberg, Germany.
7313 EM Schmiedmayer@physi.uni-heidelberg.de
7314 NR 6
7315 TC 0
7316 PU NATURE PUBLISHING GROUP
7317 PI LONDON
7318 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7319 SN 0028-0836
7320 J9 NATURE
7321 JI Nature
7322 PD OCT 20
7323 PY 2005
7324 VL 437
7325 IS 7062
7326 BP 1102
7327 EP 1102
7328 PG 1
7329 SC Multidisciplinary Sciences
7330 GA 975KD
7331 UT ISI:000232660500028
7332 ER
7333
7334 PT J
7335 AU Kastan, MB
7336 TI Cell biology - A BID for the pathway
7337 SO NATURE
7338 LA English
7339 DT Editorial Material
7340 ID DNA-DAMAGE RESPONSE; MITOCHONDRIA; ATM
7341 C1 St Jude Childrens Hosp, Dept Hematol Oncol, Memphis, TN 38105 USA.
7342 RP Kastan, MB, St Jude Childrens Hosp, Dept Hematol Oncol, Room D-5048,332
7343 N Lauderdale St, Memphis, TN 38105 USA.
7344 EM Michael.Kastan@stjude.org
7345 NR 8
7346 TC 0
7347 PU NATURE PUBLISHING GROUP
7348 PI LONDON
7349 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7350 SN 0028-0836
7351 J9 NATURE
7352 JI Nature
7353 PD OCT 20
7354 PY 2005
7355 VL 437
7356 IS 7062
7357 BP 1103
7358 EP 1103
7359 PG 1
7360 SC Multidisciplinary Sciences
7361 GA 975KD
7362 UT ISI:000232660500029
7363 ER
7364
7365 PT J
7366 AU Melia, F
7367 TI Astronomy - Odd company
7368 SO NATURE
7369 LA English
7370 DT Editorial Material
7371 ID SUPERMASSIVE BLACK-HOLE; GALACTIC-CENTER; M31; NUCLEUS
7372 C1 Univ Arizona, Dept Phys & Astron, Tucson, AZ 85721 USA.
7373 RP Melia, F, Univ Arizona, Dept Phys & Astron, Tucson, AZ 85721 USA.
7374 EM melia@physics.arizona.edu
7375 NR 10
7376 TC 0
7377 PU NATURE PUBLISHING GROUP
7378 PI LONDON
7379 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7380 SN 0028-0836
7381 J9 NATURE
7382 JI Nature
7383 PD OCT 20
7384 PY 2005
7385 VL 437
7386 IS 7062
7387 BP 1105
7388 EP 1105
7389 PG 1
7390 SC Multidisciplinary Sciences
7391 GA 975KD
7392 UT ISI:000232660500030
7393 ER
7394
7395 PT J
7396 AU Kondrashov, AS
7397 TI Evolutionary biology - Fruitfly genome is not junk
7398 SO NATURE
7399 LA English
7400 DT Editorial Material
7401 ID DROSOPHILA-MELANOGASTER; TRANSPOSABLE ELEMENTS; INTERGENIC REGIONS;
7402 MOUSE; PSEUDOGENES; SEQUENCES
7403 C1 NIH, Natl Ctr Biotechnol Informat, Bethesda, MD 20894 USA.
7404 RP Kondrashov, AS, NIH, Natl Ctr Biotechnol Informat, Bethesda, MD 20894
7405 USA.
7406 EM kondrashov@ncbi.nlm.nih.gov
7407 NR 16
7408 TC 0
7409 PU NATURE PUBLISHING GROUP
7410 PI LONDON
7411 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7412 SN 0028-0836
7413 J9 NATURE
7414 JI Nature
7415 PD OCT 20
7416 PY 2005
7417 VL 437
7418 IS 7062
7419 BP 1106
7420 EP 1106
7421 PG 1
7422 SC Multidisciplinary Sciences
7423 GA 975KD
7424 UT ISI:000232660500031
7425 ER
7426
7427 PT J
7428 AU Russell, JC
7429 Towns, DR
7430 Anderson, SH
7431 Clout, MN
7432 TI Intercepting the first rat ashore
7433 SO NATURE
7434 LA English
7435 DT Editorial Material
7436 ID NEW-ZEALAND; ISLANDS; NORVEGICUS; INVASION; BIOLOGY
7437 C1 Univ Auckland, Sch Biol Sci, Auckland 1, New Zealand.
7438 Univ Auckland, Dept Stat, Auckland 1, New Zealand.
7439 Dept Conservat, Auckland, New Zealand.
7440 RP Russell, JC, Univ Auckland, Sch Biol Sci, Private Bag 92019, Auckland
7441 1, New Zealand.
7442 EM j.russell@auckland.ac.nz
7443 NR 10
7444 TC 1
7445 PU NATURE PUBLISHING GROUP
7446 PI LONDON
7447 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7448 SN 0028-0836
7449 J9 NATURE
7450 JI Nature
7451 PD OCT 20
7452 PY 2005
7453 VL 437
7454 IS 7062
7455 BP 1107
7456 EP 1107
7457 PG 1
7458 SC Multidisciplinary Sciences
7459 GA 975KD
7460 UT ISI:000232660500032
7461 ER
7462
7463 PT J
7464 AU Le, QM
7465 Kiso, M
7466 Someya, K
7467 Sakai, YT
7468 Nguyen, TH
7469 Nguyen, KHL
7470 Pham, ND
7471 Ngyen, HH
7472 Yamada, S
7473 Muramoto, Y
7474 Horimoto, T
7475 Takada, A
7476 Goto, H
7477 Suzuki, T
7478 Suzuki, Y
7479 Kawaoka, Y
7480 TI Avian flu - Isolation of drug-resistant H5N1 virus
7481 SO NATURE
7482 LA English
7483 DT Editorial Material
7484 ID NEURAMINIDASE INHIBITORS; INFLUENZA; OSELTAMIVIR
7485 C1 Natl Inst Hyg & Epidemiol, Hanoi, Vietnam.
7486 Univ Tokyo, Dept Microbiol & Immunol, Div Virol, Tokyo 1088639, Japan.
7487 Univ Tokyo, Inst Med Sci, Int Res Ctr Infect Dis, Tokyo 1088639, Japan.
7488 Japan Sci & Technol Agcy, Core Res Evolut Sci & Technol, Kawaguchi, Saitama 3320012, Japan.
7489 Daiichi Pharmaceut Co Ltd, Tokyo 1348630, Japan.
7490 Natl Inst Clin Res Trop Med, Hanoi, Vietnam.
7491 Univ Shizuoka, Sch Pharmaceut Sci, Dept Biochem, Shizuoka 4228526, Japan.
7492 COE Program 21st Century, Shizuoka 4228526, Japan.
7493 Univ Wisconsin, Sch Vet Med, Dept Pathobiol Sci, Madison, WI 53706 USA.
7494 RP Le, QM, Natl Inst Hyg & Epidemiol, Hanoi, Vietnam.
7495 EM kawaoka@ims.u-tokyo.ac.jp
7496 NR 11
7497 TC 0
7498 PU NATURE PUBLISHING GROUP
7499 PI LONDON
7500 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7501 SN 0028-0836
7502 J9 NATURE
7503 JI Nature
7504 PD OCT 20
7505 PY 2005
7506 VL 437
7507 IS 7062
7508 BP 1108
7509 EP 1108
7510 PG 1
7511 SC Multidisciplinary Sciences
7512 GA 975KD
7513 UT ISI:000232660500033
7514 ER
7515
7516 PT J
7517 AU Koo, SH
7518 Flechner, L
7519 Qi, L
7520 Zhang, XM
7521 Screaton, RA
7522 Jeffries, S
7523 Hedrick, S
7524 Xu, W
7525 Boussouar, F
7526 Brindle, P
7527 Takemori, H
7528 Montminy, M
7529 TI The CREB coactivator TORC2 is a key regulator of fasting glucose
7530 metabolism
7531 SO NATURE
7532 LA English
7533 DT Article
7534 ID ACTIVATED PROTEIN-KINASE; HEPATIC GLUCONEOGENESIS; BINDING PROTEIN;
7535 LIPID-METABOLISM; GENE-EXPRESSION; INSULIN; CAMP; TRANSCRIPTION; PGC-1;
7536 LIVER
7537 AB Glucose homeostasis is regulated systemically by hormones such as
7538 insulin and glucagon, and at the cellular level by energy status.
7539 Glucagon enhances glucose output from the liver during fasting by
7540 stimulating the transcription of gluconeogenic genes via the cyclic
7541 AMP-inducible factor CREB (CRE binding protein). When cellular ATP
7542 levels are low, however, the energy-sensing kinase AMPK inhibits
7543 hepatic gluconeogenesis through an unknown mechanism. Here we show that
7544 hormonal and energy-sensing pathways converge on the coactivator TORC2
7545 (transducer of regulated CREB activity 2) to modulate glucose output.
7546 Sequestered in the cytoplasm under feeding conditions, TORC2 is
7547 dephosphorylated and transported to the nucleus where it enhances
7548 CREB-dependent transcription in response to fasting stimuli.
7549 Conversely, signals that activate AMPK attenuate the gluconeogenic
7550 programme by promoting TORC2 phosphorylation and blocking its nuclear
7551 accumulation. Individuals with type 2 diabetes often exhibit fasting
7552 hyperglycaemia due to elevated gluconeogenesis; compounds that enhance
7553 TORC2 phosphorylation may offer therapeutic benefits in this setting.
7554 C1 Salk Inst Biol Studies, Peptide Biol Labs, La Jolla, CA 92037 USA.
7555 St Jude Childrens Hosp, Dept Biochem, Memphis, TN 38105 USA.
7556 Osaka Univ, Grad Sch Med H1, Dept Biochem & Mol Biol, Suita, Osaka 5650871, Japan.
7557 RP Montminy, M, Salk Inst Biol Studies, Peptide Biol Labs, 10010 N Torrey
7558 Pines Rd, La Jolla, CA 92037 USA.
7559 EM montminy@salk.edu
7560 NR 32
7561 TC 0
7562 PU NATURE PUBLISHING GROUP
7563 PI LONDON
7564 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7565 SN 0028-0836
7566 J9 NATURE
7567 JI Nature
7568 PD OCT 20
7569 PY 2005
7570 VL 437
7571 IS 7062
7572 BP 1109
7573 EP 1114
7574 PG 6
7575 SC Multidisciplinary Sciences
7576 GA 975KD
7577 UT ISI:000232660500034
7578 ER
7579
7580 PT J
7581 AU Martin, A
7582 Baker, TA
7583 Sauer, RT
7584 TI Rebuilt AAA plus motors reveal operating principles for ATP-fuelled
7585 machines
7586 SO NATURE
7587 LA English
7588 DT Article
7589 ID CLPXP DEGRADATION MACHINE; ESCHERICHIA-COLI; DEPENDENT PROTEASES;
7590 CRYSTAL-STRUCTURE; SEQUENTIAL HYDROLYSIS; PROTEIN; HELICASE;
7591 RECOGNITION; MECHANISM; CHAPERONE
7592 AB Hexamericring- shaped ATPases of the AAA+ (for ATPases associated with
7593 various cellular activities) superfamily power cellular processes in
7594 which macromolecular structures and complexes are dismantled or
7595 denatured, but the mechanisms used by these machine-like enzymes are
7596 poorly understood. By covalently linking active and inactive subunits
7597 of the ATPase ClpX to form hexamers, here we show that diverse
7598 geometric arrangements can support the enzymatic unfolding of protein
7599 substrates and translocation of the denatured polypeptide into the ClpP
7600 peptidase for degradation. These studies indicate that the ClpX power
7601 stroke is generated by ATP hydrolysis in a single subunit, rule out
7602 concerted and strict sequential ATP hydrolysis models, and provide
7603 evidence for a probabilistic sequence of nucleotide hydrolysis. This
7604 mechanism would allow any ClpX subunit in contact with a translocating
7605 polypeptide to hydrolyse ATP to drive substrate spooling into ClpP, and
7606 would prevent stalling if one subunit failed to bind or hydrolyse ATP.
7607 Energy-dependent machines with highly diverse quaternary architectures
7608 and molecular functions could operate by similar asymmetric mechanisms.
7609 C1 MIT, Dept Biol, Cambridge, MA 02139 USA.
7610 MIT, Howard Hughes Med Inst, Cambridge, MA 02139 USA.
7611 RP Sauer, RT, MIT, Dept Biol, 77 Massachusetts Ave, Cambridge, MA 02139
7612 USA.
7613 EM bobsauer@mit.edu
7614 NR 37
7615 TC 0
7616 PU NATURE PUBLISHING GROUP
7617 PI LONDON
7618 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7619 SN 0028-0836
7620 J9 NATURE
7621 JI Nature
7622 PD OCT 20
7623 PY 2005
7624 VL 437
7625 IS 7062
7626 BP 1115
7627 EP 1120
7628 PG 6
7629 SC Multidisciplinary Sciences
7630 GA 975KD
7631 UT ISI:000232660500035
7632 ER
7633
7634 PT J
7635 AU Toppani, A
7636 Robert, F
7637 Libourel, G
7638 de Donato, P
7639 Barres, O
7640 d'Hendecourt, L
7641 Ghanbaja, J
7642 TI A 'dry' condensation origin for circumstellar carbonates
7643 SO NATURE
7644 LA English
7645 DT Article
7646 ID MINERAL FORMATION; MOLECULAR CLOUDS; STELLAR WINDS; SOLAR NEBULA; DUST;
7647 NGC-6302; SPECTROSCOPY; DISCOVERY; PROTOSTAR; EMISSION
7648 AB The signature of carbonate minerals has long been suspected in the
7649 mid-infrared spectra of various astrophysical environments such as
7650 protostars(1). Abiogenic carbonates are considered as indicators of
7651 aqueous mineral alteration(2) in the presence of CO2-rich liquid water.
7652 The recent claimed detection of calcite associated with amorphous
7653 silicates in two planetary nebulae(3) and protostars(4,5) devoid of
7654 planetary bodies questions the relevance of this indicator; but in the
7655 absence of an alternative mode of formation under circumstellar
7656 conditions, this detection remains controversial(6-8). The main dust
7657 component observed in circumstellar envelopes is amorphous
7658 silicates(9), which are thought to have formed by non-equilibrium
7659 condensation(10). Here we report experiments demonstrating that
7660 carbonates can be formed with amorphous silicates during the
7661 non-equilibrium condensation of a silicate gas in a H2O-CO2-rich
7662 vapour. We propose that the observed astrophysical carbonates have
7663 condensed in H2O(g)-CO2(g)-rich, high-temperature and high-density
7664 regions such as evolved stellar winds, or those induced by grain
7665 sputtering upon shocks in protostellar outflows.
7666 C1 Ctr Rech Petrog & Geochim, CNRS, UPR 2300, F-54501 Vandoeuvre Les Nancy, France.
7667 INPL, Ecole Natl Super Geol, F-54501 Vandoeuvre Les Nancy, France.
7668 Lab Environm & Mineral, CNRS, UMR 7569, F-54501 Vandoeuvre Les Nancy, France.
7669 Museum Natl Hist Nat, Lab Etud Mat Extraterr, CNRS, UMS 2679, F-75005 Paris, France.
7670 Univ Paris 11, Inst Astrophys Spatiale, CNRS, UMR 8617, F-91405 Orsay, France.
7671 Univ Nancy 1, Fac Sci, Serv Commun Microscopie Elect Transmiss, F-54506 Vandoeuvre Les Nancy, France.
7672 RP Toppani, A, Lawrence Livermore Natl Lab, Inst Geophys & Planetary Phys,
7673 7000 East Ave,L-413, Livermore, CA 94550 USA.
7674 EM toppani2@llnl.gov
7675 NR 30
7676 TC 0
7677 PU NATURE PUBLISHING GROUP
7678 PI LONDON
7679 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7680 SN 0028-0836
7681 J9 NATURE
7682 JI Nature
7683 PD OCT 20
7684 PY 2005
7685 VL 437
7686 IS 7062
7687 BP 1121
7688 EP 1124
7689 PG 4
7690 SC Multidisciplinary Sciences
7691 GA 975KD
7692 UT ISI:000232660500036
7693 ER
7694
7695 PT J
7696 AU Bierhaus, EB
7697 Chapman, CR
7698 Merline, WJ
7699 TI Secondary craters on Europa and implications for cratered surfaces
7700 SO NATURE
7701 LA English
7702 DT Article
7703 ID EJECTION VELOCITY; ECLIPTIC COMETS; IMPACT CRATERS; SOLAR-SYSTEM;
7704 RATES; MARS; ICE; FRAGMENTS; SIZE
7705 AB For several decades, most planetary researchers have regarded the
7706 impact crater populations on solid-surfaced planets and smaller bodies
7707 as predominantly reflecting the direct ('primary') impacts of asteroids
7708 and comets(1). Estimates of the relative and absolute ages of
7709 geological units on these objects have been based on this
7710 assumption(2). Here we present an analysis of the comparatively sparse
7711 crater population on Jupiter's icy moon Europa and suggest that this
7712 assumption is incorrect for small craters. We find that 'secondaries'
7713 (craters formed by material ejected from large primary impact craters)
7714 comprise about 95 per cent of the small craters (diameters less than 1
7715 km) on Europa. We therefore conclude that large primary impacts into a
7716 solid surface (for example, ice or rock) produce far more secondaries
7717 than previously believed, implying that the small crater populations on
7718 the Moon, Mars and other large bodies must be dominated by secondaries.
7719 Moreover, our results indicate that there have been few small comets
7720 (less than 100 m diameter) passing through the jovian system in recent
7721 times, consistent with dynamical simulations(3)
7722 C1 Lockheed Martin, Space Explorat Syst, Denver, CO 80201 USA.
7723 SW Res Inst, Boulder, CO 80302 USA.
7724 RP Bierhaus, EB, Lockheed Martin, Space Explorat Syst, MS S8110,POB 179,
7725 Denver, CO 80201 USA.
7726 EM edward.b.bierhaus@lmco.com
7727 NR 30
7728 TC 0
7729 PU NATURE PUBLISHING GROUP
7730 PI LONDON
7731 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7732 SN 0028-0836
7733 J9 NATURE
7734 JI Nature
7735 PD OCT 20
7736 PY 2005
7737 VL 437
7738 IS 7062
7739 BP 1125
7740 EP 1127
7741 PG 3
7742 SC Multidisciplinary Sciences
7743 GA 975KD
7744 UT ISI:000232660500037
7745 ER
7746
7747 PT J
7748 AU Shinada, T
7749 Okamoto, S
7750 Kobayashi, T
7751 Ohdomari, I
7752 TI Enhancing semiconductor device performance using ordered dopant arrays
7753 SO NATURE
7754 LA English
7755 DT Article
7756 ID SINGLE-ION IMPLANTATION; IMPURITY ATOMS; FLUCTUATION; MOSFETS; NUMBER
7757 AB As the size of semiconductor devices continues to shrink, the normally
7758 random distribution of the individual dopant atoms within the
7759 semiconductor becomes a critical factor in determining device
7760 performance-homogeneity can no longer be assumed(1-5). Here we report
7761 the fabrication of semiconductor devices in which both the number and
7762 position of the dopant atoms are precisely controlled. To achieve this,
7763 we make use of a recently developed single-ion implantation
7764 technique(6-9), which enables us to implant dopant ions one-by-one into
7765 a fine semiconductor region until the desired number is reached.
7766 Electrical measurements of the resulting transistors reveal that
7767 device-to-device fluctuations in the threshold voltage (V-th; the
7768 turn-on voltage of the device) are less for those structures with
7769 ordered dopant arrays than for those with conventional random doping.
7770 We also find that the devices with ordered dopant arrays exhibit a
7771 shift in V-th, relative to the undoped semiconductor, that is twice
7772 that for a random dopant distribution (-0.4 V versus -0.2 V); we
7773 attribute this to the uniformity of electrostatic potential in the
7774 conducting channel region due to the ordered distribution of dopant
7775 atoms. Our results therefore serve to highlight the improvements in
7776 device performance that can be achieved through atomic-scale control of
7777 the doping process. Furthermore, ordered dopant arrays of this type may
7778 enhance the prospects for realizing silicon-based solid-state quantum
7779 computers(10).
7780 C1 Waseda Univ, Consolidated Res Inst Adv Sci & Med Care, Shinjuku Ku, Tokyo 1620041, Japan.
7781 Waseda Univ, Sch Sci & Engn, Shinjuku Ku, Tokyo 1620041, Japan.
7782 RP Shinada, T, Waseda Univ, Consolidated Res Inst Adv Sci & Med Care,
7783 Shinjuku Ku, 513 Wasedatsurumaki Cho, Tokyo 1620041, Japan.
7784 EM shina@waseda.jp
7785 NR 11
7786 TC 1
7787 PU NATURE PUBLISHING GROUP
7788 PI LONDON
7789 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7790 SN 0028-0836
7791 J9 NATURE
7792 JI Nature
7793 PD OCT 20
7794 PY 2005
7795 VL 437
7796 IS 7062
7797 BP 1128
7798 EP 1131
7799 PG 4
7800 SC Multidisciplinary Sciences
7801 GA 975KD
7802 UT ISI:000232660500038
7803 ER
7804
7805 PT J
7806 AU Hughes, MD
7807 Xu, YJ
7808 Jenkins, P
7809 McMorn, P
7810 Landon, P
7811 Enache, DI
7812 Carley, AF
7813 Attard, GA
7814 Hutchings, GJ
7815 King, F
7816 Stitt, EH
7817 Johnston, P
7818 Griffin, K
7819 Kiely, CJ
7820 TI Tunable gold catalysts for selective hydrocarbon oxidation under mild
7821 conditions
7822 SO NATURE
7823 LA English
7824 DT Article
7825 ID HYDROGEN-PEROXIDE; AU CATALYSTS; EPOXIDATION; NANOPARTICLES;
7826 CONVERSION; ACID; GLYCEROL; PROPENE; AIR; PD
7827 AB Oxidation is an important method for the synthesis of chemical
7828 intermediates in the manufacture of high-tonnage commodities,
7829 high-value fine chemicals, agrochemicals and pharmaceuticals: but
7830 oxidations are often inefficient(1). The introduction of catalytic
7831 systems using oxygen from air is preferred for 'green' processing(2).
7832 Gold catalysis is now showing potential in selective redox
7833 processes(3-6), particularly for alcohol oxidation(7-10) and the direct
7834 synthesis of hydrogen peroxide(11,12). However, a major challenge that
7835 persists is the synthesis of an epoxide by the direct electrophilic
7836 addition of oxygen to an alkene(13). Although ethene is epoxidized
7837 efficiently using molecular oxygen with silver catalysts in a
7838 large-scale industrial process(14), this is unique because higher
7839 alkenes can only be effectively epoxidized using hydrogen
7840 peroxide(15-17), hydroperoxides(16) or stoichiometric oxygen donors.
7841 Here we show that nanocrystalline gold catalysts can provide tunable
7842 active catalysts for the oxidation of alkenes using air, with
7843 exceptionally high selectivity to partial oxidation products (similar
7844 to 98%) and significant conversions. Our finding significantly extends
7845 the discovery by Haruta(18,19) that nanocrystalline gold can epoxidize
7846 alkenes when hydrogen is used to activate the molecular oxygen; in our
7847 case, no sacrificial reductant is needed. We anticipate that our
7848 finding will initiate attempts to understand more fully the mechanism
7849 of oxygen activation at gold surfaces, which might lead to commercial
7850 exploitation of the high redox activity of gold nanocrystals.
7851 C1 Cardiff Univ, Sch Chem, Cardiff CF10 3AT, Wales.
7852 Johnson Matthey Catalysts, Middlesbrough TS23 1LB, England.
7853 Johnson Matthey Catalysts, Royston SG8 5HE, Herts, England.
7854 Lehigh Univ, Ctr Adv Mat & Nanotechnol, Bethlehem, PA 18015 USA.
7855 RP Hutchings, GJ, Cardiff Univ, Sch Chem, Main Bldg,Pk Pl, Cardiff CF10
7856 3AT, Wales.
7857 EM hutch@cardiff.ac.uk
7858 NR 24
7859 TC 1
7860 PU NATURE PUBLISHING GROUP
7861 PI LONDON
7862 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7863 SN 0028-0836
7864 J9 NATURE
7865 JI Nature
7866 PD OCT 20
7867 PY 2005
7868 VL 437
7869 IS 7062
7870 BP 1132
7871 EP 1135
7872 PG 4
7873 SC Multidisciplinary Sciences
7874 GA 975KD
7875 UT ISI:000232660500039
7876 ER
7877
7878 PT J
7879 AU McNamara, AK
7880 Zhong, SJ
7881 TI Thermochemical structures beneath Africa and the Pacific Ocean
7882 SO NATURE
7883 LA English
7884 DT Article
7885 ID MANTLE CONVECTION; BOUNDARY-LAYER; DEEP MANTLE; MODELS; SHEAR;
7886 HETEROGENEITY; INVERSION; VELOCITY; SUPERPLUME; VISCOSITY
7887 AB Large low-velocity seismic anomalies have been detected in the Earth's
7888 lower mantle beneath Africa and the Pacific Ocean that are not easily
7889 explained by temperature variations alone(1-11). The African anomaly
7890 has been interpreted to be a northwest southeast-trending
7891 structure(3-5,7) with a sharp-edged linear, ridgelike morphology(9,10).
7892 The Pacific anomaly, on the other hand, appears to be more rounded in
7893 shape(1-4,6,7,11). Mantle models with heterogeneous composition have
7894 related these structures to dense thermochemical piles or
7895 superplumes(12-19). It has not been shown, however, that such models
7896 can lead to thermochemical structures that satisfy the geometrical
7897 constraints, as inferred from seismological observations. Here we
7898 present numerical models of thermochemical convection in a
7899 three-dimensional spherical geometry using plate velocities inferred
7900 for the past 119 million years(20). We show that Earth's subduction
7901 history can lead to thermochemical structures similar in shape to the
7902 observed large, lower-mantle velocity anomalies. We find that
7903 subduction history tends to focus dense material into a ridge-like pile
7904 beneath Africa and a relatively more-rounded pile under the Pacific
7905 Ocean, consistent with seismic observations.
7906 C1 Univ Colorado, Dept Phys, Boulder, CO 80309 USA.
7907 RP McNamara, AK, Arizona State Univ, Dept Geol Sci, Tempe, AZ 85287 USA.
7908 EM allen.mcnamara@asu.edu
7909 NR 25
7910 TC 0
7911 PU NATURE PUBLISHING GROUP
7912 PI LONDON
7913 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7914 SN 0028-0836
7915 J9 NATURE
7916 JI Nature
7917 PD OCT 20
7918 PY 2005
7919 VL 437
7920 IS 7062
7921 BP 1136
7922 EP 1139
7923 PG 4
7924 SC Multidisciplinary Sciences
7925 GA 975KD
7926 UT ISI:000232660500040
7927 ER
7928
7929 PT J
7930 AU Parman, SW
7931 Kurz, MD
7932 Hart, SR
7933 Grove, TL
7934 TI Helium solubility in olivine and implications for high He-3/He-4 in
7935 ocean island basalts
7936 SO NATURE
7937 LA English
7938 DT Article
7939 ID NOBLE-GASES; MANTLE HETEROGENEITY; EARTHS MANTLE; SYSTEMATICS;
7940 EVOLUTION; RIDGE; MELTS; NEON; FRACTIONATION; CONSTRAINTS
7941 AB High He-3/(4) He ratios found in ocean island basalts are the main
7942 evidence for the existence of an undegassed mantle reservoir(1-3).
7943 However, models of helium isotope evolution depend critically on the
7944 chemical behaviour of helium during mantle melting. It is generally
7945 assumed that helium is strongly enriched in mantle melts relative to
7946 uranium and thorium, yet estimates of helium partitioning in mantle
7947 minerals have produced conflicting results(4-6). Here we present
7948 experimental measurements of helium solubility in olivine at
7949 atmospheric pressure. Natural and synthetic olivines were equilibrated
7950 with a 50% helium atmosphere and analysed by crushing in vacuo followed
7951 by melting, and yield a minimum olivine-melt partition coefficient of
7952 0.0025 +/- 0.0005 (s.d.) and a maximum of 0.0060 +/- 0.0007 (s.d.). The
7953 results indicate that helium might be more compatible than uranium and
7954 thorium during mantle melting and that high He-3/(4) He ratios can be
7955 preserved in depleted residues of melting. A depleted source for high
7956 He-3/(4) He ocean island basalts would resolve the apparent
7957 discrepancy(7) in the relative helium concentrations of ocean island
7958 and mid-ocean-ridge basalts.
7959 C1 MIT, Dept Earth Atmospher & Planetary Sci, Cambridge, MA 02139 USA.
7960 Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA.
7961 RP Parman, SW, Univ Durham, Sci Labs, Dept Earth Sci, Durham DH1 3LE,
7962 England.
7963 EM stephen.parman@durham.ac.uk
7964 NR 30
7965 TC 0
7966 PU NATURE PUBLISHING GROUP
7967 PI LONDON
7968 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
7969 SN 0028-0836
7970 J9 NATURE
7971 JI Nature
7972 PD OCT 20
7973 PY 2005
7974 VL 437
7975 IS 7062
7976 BP 1140
7977 EP 1143
7978 PG 4
7979 SC Multidisciplinary Sciences
7980 GA 975KD
7981 UT ISI:000232660500041
7982 ER
7983
7984 PT J
7985 AU Maxmen, A
7986 Browne, WE
7987 Martindale, MQ
7988 Giribet, G
7989 TI Neuroanatomy of sea spiders implies an appendicular origin of the
7990 protocerebral segment
7991 SO NATURE
7992 LA English
7993 DT Article
7994 ID HEAD SEGMENTATION; NERVOUS-SYSTEM; INSECT BRAIN; OPTIC LOBES;
7995 EXPRESSION; ARTHROPODA; MORPHOLOGY; PYCNOGONIDA; CRUSTACEANS; PHYLOGENY
7996 AB Independent specialization of arthropod body segments has led to more
7997 than a century of debate on the homology of morphologically diverse
7998 segments(1,2), each defined by a lateral appendage and a ganglion of
7999 the central nervous system. The plesiomorphic composition of the
8000 arthropod head remains enigmatic because variation in segments and
8001 corresponding appendages is extreme. Within extant arthropod classes
8002 (Chelicerata, Myriapoda, Crustacea and Hexapoda-including the insects),
8003 correspondences between the appendage-bearing second (deutocerebral)
8004 and third (tritocerebral) cephalic neuromeres have been recently
8005 resolved on the basis of immunohistochemistry(1) and Hox gene
8006 expression patterns(3,4). However, no appendage targets the first
8007 ganglion, the protocerebrum, and the corresponding segmental identity
8008 of this anterior region remains unclear(5). Reconstructions of
8009 stem-group arthropods indicate that the anteriormost region originally
8010 might have borne an ocular apparatus and a frontal appendage innervated
8011 by the protocerebrum(6). However, no study of the central nervous
8012 system in extant arthropods has been able to corroborate this idea
8013 directly, although recent analyses of cephalic gene expression patterns
8014 in insects suggest a segmental status for the protocerebral
8015 region(7-10). Here we investigate the developmental neuroanatomy of a
8016 putative basal arthropod(11), the pycnogonid sea spider, with
8017 immunohistochemical techniques. We show that the first pair of
8018 appendages, the chelifores, are innervated at an anterior position on
8019 the protocerebrum. This is the first true appendage shown to be
8020 innervated by the protocerebrum, and thus pycnogonid chelifores are not
8021 positionally homologous to appendages of extant arthropods but might,
8022 in fact, be homologous to the 'great appendages' of certain Cambrian
8023 stem-group arthropods.
8024 C1 Harvard Univ, Dept Organism & Evolutionary Biol, Cambridge, MA 02138 USA.
8025 Harvard Univ, Museum Comparat Zool, Cambridge, MA 02138 USA.
8026 Univ Hawaii, Pacific Biosci Res Ctr, Kewalo Marine Lab, Honolulu, HI 96813 USA.
8027 RP Maxmen, A, Harvard Univ, Dept Organism & Evolutionary Biol, 26 Oxford
8028 St, Cambridge, MA 02138 USA.
8029 EM amaxmen@oeb.harvard.edu
8030 NR 32
8031 TC 1
8032 PU NATURE PUBLISHING GROUP
8033 PI LONDON
8034 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8035 SN 0028-0836
8036 J9 NATURE
8037 JI Nature
8038 PD OCT 20
8039 PY 2005
8040 VL 437
8041 IS 7062
8042 BP 1144
8043 EP 1148
8044 PG 5
8045 SC Multidisciplinary Sciences
8046 GA 975KD
8047 UT ISI:000232660500042
8048 ER
8049
8050 PT J
8051 AU Andolfatto, P
8052 TI Adaptive evolution of non-coding DNA in Drosophila
8053 SO NATURE
8054 LA English
8055 DT Article
8056 ID BACKGROUND SELECTION; MOLECULAR EVOLUTION; PROTEIN EVOLUTION; PATTERNS;
8057 MELANOGASTER; SEQUENCE; GENE; CONSTRAINTS; GENOMES
8058 AB A large fraction of eukaryotic genomes consists of DNA that is not
8059 translated into protein sequence, and little is known about its
8060 functional significance. Here I show that several classes of non-coding
8061 DNA in Drosophila are evolving considerably slower than synonymous
8062 sites, and yet show an excess of between-species divergence relative to
8063 polymorphism when compared with synonymous sites. The former is a
8064 hallmark of selective constraint, but the latter is a signature of
8065 adaptive evolution, resembling general patterns of protein evolution in
8066 Drosophila(1,2). I estimate that about 40-70% of nucleotides in
8067 intergenic regions, untranslated portions of mature mRNAs ( UTRs) and
8068 most intronic DNA are evolutionarily constrained relative to synonymous
8069 sites. However, I also use an extension to the McDonald-Kreitman
8070 test(3) to show that a substantial fraction of the nucleotide
8071 divergence in these regions was driven to fixation by positive
8072 selection (about 20% for most intronic and intergenic DNA, and 60% for
8073 UTRs). On the basis of these observations, I suggest that a large
8074 fraction of the non-translated genome is functionally important and
8075 subject to both purifying selection and adaptive evolution. These
8076 results imply that, although positive selection is clearly an important
8077 facet of protein evolution, adaptive changes to non-coding DNA might
8078 have been considerably more common in the evolution of D. melanogaster.
8079 C1 Univ Calif San Diego, Div Biol Sci, Sect Ecol Behav & Evolut, La Jolla, CA 92093 USA.
8080 RP Andolfatto, P, Univ Calif San Diego, Div Biol Sci, Sect Ecol Behav &
8081 Evolut, La Jolla, CA 92093 USA.
8082 EM pandolfatto@ucsd.edu
8083 NR 29
8084 TC 1
8085 PU NATURE PUBLISHING GROUP
8086 PI LONDON
8087 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8088 SN 0028-0836
8089 J9 NATURE
8090 JI Nature
8091 PD OCT 20
8092 PY 2005
8093 VL 437
8094 IS 7062
8095 BP 1149
8096 EP 1152
8097 PG 4
8098 SC Multidisciplinary Sciences
8099 GA 975KD
8100 UT ISI:000232660500043
8101 ER
8102
8103 PT J
8104 AU Bustamante, CD
8105 Fledel-Alon, A
8106 Williamson, S
8107 Nielsen, R
8108 Hubisz, MT
8109 Glanowski, S
8110 Tanenbaum, DM
8111 White, TJ
8112 Sninsky, JJ
8113 Hernandez, RD
8114 Civello, D
8115 Adams, MD
8116 Cargill, M
8117 Clark, AG
8118 TI Natural selection on protein-coding genes in the human genome
8119 SO NATURE
8120 LA English
8121 DT Article
8122 ID SINGLE-NUCLEOTIDE POLYMORPHISMS; POPULATION-GENETICS; MOLECULAR
8123 EVOLUTION; DROSOPHILA; PATTERNS; ARABIDOPSIS; DIVERGENCE; LOCUS
8124 AB Comparisons of DNA polymorphism within species to divergence between
8125 species enables the discovery of molecular adaptation in evolutionarily
8126 constrained genes as well as the differentiation of weak from strong
8127 purifying selection(1-4). The extent to which weak negative and
8128 positive darwinian selection have driven the molecular evolution of
8129 different species varies greatly(5-16), with some species, such as
8130 Drosophila melanogaster, showing strong evidence of pervasive positive
8131 selection(6-9), and others, such as the selfing weed Arabidopsis
8132 thaliana, showing an excess of deleterious variation within local
8133 populations(9,10). Here we contrast patterns of coding sequence
8134 polymorphism identified by direct sequencing of 39 humans for over
8135 11,000 genes to divergence between humans and chimpanzees, and find
8136 strong evidence that natural selection has shaped the recent molecular
8137 evolution of our species. Our analysis discovered 304 (9.0%) out of
8138 3,377 potentially informative loci showing evidence of rapid amino acid
8139 evolution. Furthermore, 813 (13.5%) out of 6,033 potentially
8140 informative loci show a paucity of amino acid differences between
8141 humans and chimpanzees, indicating weak negative selection and/or
8142 balancing selection operating on mutations at these loci. We find that
8143 the distribution of negatively and positively selected genes varies
8144 greatly among biological processes and molecular functions, and that
8145 some classes, such as transcription factors, show an excess of rapidly
8146 evolving genes, whereas others, such as cytoskeletal proteins, show an
8147 excess of genes with extensive amino acid polymorphism within humans
8148 and yet little amino acid divergence between humans and chimpanzees.
8149 C1 Cornell Univ, Dept Biol Stat & Computat Biol, Ithaca, NY 14853 USA.
8150 Univ Copenhagen, Ctr Bioinformat, DK-2100 Copenhagen, Denmark.
8151 Appl Biosyst Inc, Rockville, MD 20850 USA.
8152 Celera Diagnost, Alameda, CA 94502 USA.
8153 Case Western Reserve Univ, Dept Genet, Cleveland, OH 44106 USA.
8154 Cornell Univ, Dept Mol Biol & Genet, Ithaca, NY 14853 USA.
8155 RP Bustamante, CD, Cornell Univ, Dept Biol Stat & Computat Biol, 101
8156 Biotechnol Bldg, Ithaca, NY 14853 USA.
8157 EM cdb28@cornell.edu
8158 NR 24
8159 TC 0
8160 PU NATURE PUBLISHING GROUP
8161 PI LONDON
8162 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8163 SN 0028-0836
8164 J9 NATURE
8165 JI Nature
8166 PD OCT 20
8167 PY 2005
8168 VL 437
8169 IS 7062
8170 BP 1153
8171 EP 1157
8172 PG 5
8173 SC Multidisciplinary Sciences
8174 GA 975KD
8175 UT ISI:000232660500044
8176 ER
8177
8178 PT J
8179 AU Barnes, TD
8180 Kubota, Y
8181 Hu, D
8182 Jin, DZZ
8183 Graybiel, AM
8184 TI Activity of striatal neurons reflects dynamic encoding and recoding of
8185 procedural memories
8186 SO NATURE
8187 LA English
8188 DT Article
8189 ID BASAL GANGLIA; PREDICTION; EXTINCTION; SELECTION; HABITS; CORTEX
8190 AB Learning to perform a behavioural procedure as a well-ingrained habit
8191 requires extensive repetition of the behavioural sequence, and learning
8192 not to perform such behaviours is notoriously difficult. Yet regaining
8193 a habit can occur quickly, with even one or a few exposures to cues
8194 previously triggering the behaviour(1-3). To identify neural mechanisms
8195 that might underlie such learning dynamics, we made long-term
8196 recordings from multiple neurons in the sensorimotor striatum, a basal
8197 ganglia structure implicated in habit formation(4-8), in rats
8198 successively trained on a reward-based procedural task, given
8199 extinction training and then given reacquisition training. The spike
8200 activity of striatal output neurons, nodal points in cortico-basal
8201 ganglia circuits, changed markedly across multiple dimensions during
8202 each of these phases of learning. First, new patterns of task-related
8203 ensemble firing successively formed, reversed and then re-emerged.
8204 Second, task-irrelevant firing was suppressed, then rebounded, and then
8205 was suppressed again. These changing spike activity patterns were
8206 highly correlated with changes in behavioural performance. We propose
8207 that these changes in task representation in cortico-basal ganglia
8208 circuits represent neural equivalents of the explore-exploit behaviour
8209 characteristic of habit learning.
8210 C1 MIT, Dept Brain & Cognit Sci, Cambridge, MA 02139 USA.
8211 MIT, McGovern Inst Brain Res, Cambridge, MA 02139 USA.
8212 Penn State Univ, Dept Phys, Davey Lab 0104, University Pk, PA 16802 USA.
8213 RP Graybiel, AM, MIT, Dept Brain & Cognit Sci, 43 Vassar St,46-6133,
8214 Cambridge, MA 02139 USA.
8215 EM graybiel@mit.edu
8216 NR 30
8217 TC 0
8218 PU NATURE PUBLISHING GROUP
8219 PI LONDON
8220 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8221 SN 0028-0836
8222 J9 NATURE
8223 JI Nature
8224 PD OCT 20
8225 PY 2005
8226 VL 437
8227 IS 7062
8228 BP 1158
8229 EP 1161
8230 PG 4
8231 SC Multidisciplinary Sciences
8232 GA 975KD
8233 UT ISI:000232660500045
8234 ER
8235
8236 PT J
8237 AU Ghedin, E
8238 Sengamalay, NA
8239 Shumway, M
8240 Zaborsky, J
8241 Feldblyum, T
8242 Subbu, V
8243 Spiro, DJ
8244 Sitz, J
8245 Koo, H
8246 Bolotov, P
8247 Dernovoy, D
8248 Tatusova, T
8249 Bao, YM
8250 St George, K
8251 Taylor, J
8252 Lipman, DJ
8253 Fraser, CM
8254 Taubenberger, JK
8255 Salzberg, SL
8256 TI Large-scale sequencing of human influenza reveals the dynamic nature of
8257 viral genome evolution
8258 SO NATURE
8259 LA English
8260 DT Article
8261 ID VIRUS NEURAMINIDASE; ANTIGENIC SITES; PROTEIN; HOSPITALIZATIONS;
8262 REASSORTMENT; PB1-F2; ASIA
8263 AB Influenza viruses are remarkably adept at surviving in the human
8264 population over a long timescale. The human influenza A virus continues
8265 to thrive even among populations with widespread access to vaccines,
8266 and continues to be a major cause of morbidity and mortality(1,2). The
8267 virus mutates from year to year, making the existing vaccines
8268 ineffective on a regular basis, and requiring that new strains be
8269 chosen for a new vaccine. Less-frequent major changes, known as
8270 antigenic shift, create new strains against which the human population
8271 has little protective immunity, thereby causing worldwide pandemics.
8272 The most recent pandemics include the 1918 'Spanish' flu, one of the
8273 most deadly outbreaks in recorded history, which killed 30-50 million
8274 people worldwide, the 1957 'Asian' flu, and the 1968 'Hong Kong'
8275 flu(3). Motivated by the need for a better understanding of influenza
8276 evolution, we have developed flexible protocols that make it possible
8277 to apply large-scale sequencing techniques to the highly variable
8278 influenza genome. Here we report the results of sequencing 209 complete
8279 genomes of the human influenza A virus, encompassing a total of
8280 2,821,103 nucleotides. In addition to increasing markedly the number of
8281 publicly available, complete influenza virus genomes, we have
8282 discovered several anomalies in these first 209 genomes that
8283 demonstrate the dynamic nature of influenza transmission and evolution.
8284 This new, large-scale sequencing effort promises to provide a more
8285 comprehensive picture of the evolution of influenza viruses and of
8286 their pattern of transmission through human and animal populations. All
8287 data from this project are being deposited, without delay, in public
8288 archives.
8289 C1 Inst Genom Res, Rockville, MD 20850 USA.
8290 NIH, Natl Ctr Biotechnol Informat, Natl Lib Med, Bethesda, MD 20894 USA.
8291 New York State Dept Hlth, Wadsworth Ctr Labs & Res, Albany, NY 12201 USA.
8292 Armed Forces Inst Pathol, Dept Mol Pathol, Rockville, MD 20850 USA.
8293 Univ Maryland, Inst Adv Comp Studies, Ctr Bioinformat & Computat Biol, College Pk, MD 20742 USA.
8294 RP Salzberg, SL, Inst Genom Res, 9712 Med Ctr Dr, Rockville, MD 20850 USA.
8295 EM salzberg@umd.edu
8296 NR 27
8297 TC 0
8298 PU NATURE PUBLISHING GROUP
8299 PI LONDON
8300 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8301 SN 0028-0836
8302 J9 NATURE
8303 JI Nature
8304 PD OCT 20
8305 PY 2005
8306 VL 437
8307 IS 7062
8308 BP 1162
8309 EP 1166
8310 PG 5
8311 SC Multidisciplinary Sciences
8312 GA 975KD
8313 UT ISI:000232660500046
8314 ER
8315
8316 PT J
8317 AU Meylan, E
8318 Curran, J
8319 Hofmann, K
8320 Moradpour, D
8321 Binder, M
8322 Bartenschlager, R
8323 Tschopp, R
8324 TI Cardif is an adaptor protein in the RIG-I antiviral pathway and is
8325 targeted by hepatitis C virus
8326 SO NATURE
8327 LA English
8328 DT Article
8329 ID NF-KAPPA-B; DOUBLE-STRANDED-RNA; INTERFERON REGULATORY FACTOR-3;
8330 MEMBRANE ASSOCIATION; IKK-EPSILON; ACTIVATION; HELICASE;
8331 IDENTIFICATION; CLEAVAGE; DETERMINANTS
8332 AB Antiviral immunity against a pathogen is mounted upon recognition by
8333 the host of virally associated structures. One of these viral
8334 'signatures', double-stranded (ds) RNA, is a replication product of
8335 most viruses within infected cells and is sensed by Toll-like receptor
8336 3 (TLR3) and the recently identified cytosolic RNA helicases RIG-I
8337 (retinoic acid inducible gene I, also known as Ddx58) and Mda5
8338 (melanoma differentiation-associated gene 5, also known as Ifih1 or
8339 Helicard)(1). Both helicases detect dsRNA, and through their
8340 protein-interacting CARD domains, relay an undefined signal resulting
8341 in the activation of the transcription factors interferon regulatory
8342 factor 3 (IRF3) and NF-kappa B. Here we describe Cardif, a new
8343 CARD-containing adaptor protein that interacts with RIG-I and recruits
8344 IKK alpha, IKK beta and IKK epsilon kinases by means of its C-terminal
8345 region, leading to the activation of NF-kappa B and IRF3.
8346 Overexpression of Cardif results in interferon-beta and NF-kappa B
8347 promoter activation, and knockdown of Cardif by short interfering RNA
8348 inhibits RIG-I-dependent antiviral responses. Cardif is targeted and
8349 inactivated by NS3-4A, a serine protease from hepatitis C virus known
8350 to block interferon-beta production. Cardif thus functions as an
8351 adaptor, linking the cytoplasmic dsRNA receptor RIG-I to the initiation
8352 of antiviral programmes.
8353 C1 Univ Lausanne, Dept Biochem, BIL Biomed Res Ctr, CH-1066 Epalinges, Switzerland.
8354 Univ Geneva, Fac Med, Dept Microbiol & Mol Med, CH-1211 Geneva, Switzerland.
8355 MEMOREC Biotec GmbH, D-50829 Cologne, Germany.
8356 CHU Vaudois, Div Gastroenterol & Hepatol, CH-1011 Lausanne, Switzerland.
8357 Univ Heidelberg, Dept Mol Virol, D-69120 Heidelberg, Germany.
8358 RP Tschopp, R, Univ Lausanne, Dept Biochem, BIL Biomed Res Ctr, Chemin
8359 Boveresses 155, CH-1066 Epalinges, Switzerland.
8360 EM jurg.tschopp@unil.ch
8361 NR 32
8362 TC 0
8363 PU NATURE PUBLISHING GROUP
8364 PI LONDON
8365 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8366 SN 0028-0836
8367 J9 NATURE
8368 JI Nature
8369 PD OCT 20
8370 PY 2005
8371 VL 437
8372 IS 7062
8373 BP 1167
8374 EP 1172
8375 PG 6
8376 SC Multidisciplinary Sciences
8377 GA 975KD
8378 UT ISI:000232660500047
8379 ER
8380
8381 PT J
8382 AU Rual, JF
8383 Venkatesan, K
8384 Hao, T
8385 Hirozane-Kishikawa, T
8386 Dricot, A
8387 Li, N
8388 Berriz, GF
8389 Gibbons, FD
8390 Dreze, M
8391 Ayivi-Guedehoussou, N
8392 Klitgord, N
8393 Simon, C
8394 Boxem, M
8395 Milstein, S
8396 Rosenberg, J
8397 Goldberg, DS
8398 Zhang, LV
8399 Wong, SL
8400 Franklin, G
8401 Li, SM
8402 Albala, JS
8403 Lim, JH
8404 Fraughton, C
8405 Llamosas, E
8406 Cevik, S
8407 Bex, C
8408 Lamesch, P
8409 Sikorski, RS
8410 Vandenhaute, J
8411 Zoghbi, HY
8412 Smolyar, A
8413 Bosak, S
8414 Sequerra, R
8415 Doucette-Stamm, L
8416 Cusick, ME
8417 Hill, DE
8418 Roth, FP
8419 Vidal, M
8420 TI Towards a proteome-scale map of the human protein-protein interaction
8421 network
8422 SO NATURE
8423 LA English
8424 DT Article
8425 ID ORFEOME VERSION 1.1; INTERACTION DATABASE; 2-HYBRID SCREENS; C-ELEGANS;
8426 GENOME; ANNOTATION; RESOURCE; PLATFORM; BIOLOGY; GENES
8427 AB Systematic mapping of protein-protein interactions, or 'interactome'
8428 mapping, was initiated in model organisms, starting with defined
8429 biological processes(1,2) and then expanding to the scale of the
8430 proteome(3-7). Although far from complete, such maps have revealed
8431 global topological and dynamic features of interactome networks that
8432 relate to known biological properties(8,9), suggesting that a human
8433 interactome map will provide insight into development and disease
8434 mechanisms at a systems level. Here we describe an initial version of a
8435 proteome-scale map of human binary protein-protein interactions. Using
8436 a stringent, high-throughput yeast two-hybrid system, we tested
8437 pairwise interactions among the products of similar to 8,100 currently
8438 available Gateway-cloned open reading frames and detected similar to
8439 2,800 interactions. This data set, called CCSB-HI1, has a verification
8440 rate of similar to 78% as revealed by an independent co-affinity
8441 purification assay, and correlates significantly with other biological
8442 attributes. The CCSB-HI1 data set increases by similar to 70% the set
8443 of available binary interactions within the tested space and reveals
8444 more than 300 new connections to over 100 disease-associated proteins.
8445 This work represents an important step towards a systematic and
8446 comprehensive human interactome project.
8447 C1 Dana Farber Canc Inst, Ctr Canc Syst Biol, Boston, MA 02115 USA.
8448 Dana Farber Canc Inst, Dept Canc Biol, Boston, MA 02115 USA.
8449 Harvard Univ, Sch Med, Dept Genet, Boston, MA 02115 USA.
8450 Harvard Univ, Sch Med, Dept Biol Chem & Mol Pharmacol, Boston, MA 02115 USA.
8451 Fac Notre Dame Paix, Unite Rech Biol Mol, B-5000 Namur, Belgium.
8452 Howard Hughes Med Inst, Houston, TX 77030 USA.
8453 Baylor Univ, Dept Pediat, Houston, TX 77030 USA.
8454 Baylor Univ, Dept Neurol, Houston, TX 77030 USA.
8455 Baylor Univ, Dept Neurosci, Houston, TX 77030 USA.
8456 Baylor Univ, Dept Mol & Human Genet, Houston, TX 77030 USA.
8457 Arcbay Inc, Boston, MA 01915 USA.
8458 Agencourt Biosci Corp, Beverly, MA 01915 USA.
8459 RP Vidal, M, Dana Farber Canc Inst, Ctr Canc Syst Biol, 44 Binney St,
8460 Boston, MA 02115 USA.
8461 EM david_hill@dfci.harvard.edu
8462 fritz_roth@hms.harvard.edu
8463 marc_vidal@dfci.harvard.edu
8464 NR 30
8465 TC 0
8466 PU NATURE PUBLISHING GROUP
8467 PI LONDON
8468 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8469 SN 0028-0836
8470 J9 NATURE
8471 JI Nature
8472 PD OCT 20
8473 PY 2005
8474 VL 437
8475 IS 7062
8476 BP 1173
8477 EP 1178
8478 PG 6
8479 SC Multidisciplinary Sciences
8480 GA 975KD
8481 UT ISI:000232660500048
8482 ER
8483
8484 PT J
8485 AU Bonardi, V
8486 Pesaresi, P
8487 Becker, T
8488 Schleiff, E
8489 Wagner, R
8490 Pfannschmidt, T
8491 Jahns, P
8492 Leister, D
8493 TI Photosystem II core phosphorylation and photosynthetic acclimation
8494 require two different protein kinases
8495 SO NATURE
8496 LA English
8497 DT Article
8498 ID HARVESTING COMPLEX-II; ARABIDOPSIS-THALIANA; STATE TRANSITIONS; REDOX
8499 SIGNALS; GENE-EXPRESSION; OUTER ENVELOPE; NUCLEAR GENES; REPAIR CYCLE;
8500 IN-VIVO; CHLOROPLAST
8501 AB Illumination changes elicit modifications of thylakoid proteins and
8502 reorganization of the photosynthetic machinery. This involves, in the
8503 short term, phosphorylation of photosystem II (PSII) and
8504 light-harvesting (LHCII) proteins. PSII phosphorylation is thought to
8505 be relevant for PSII turnover(1,2), whereas LHCII phosphorylation is
8506 associated with the relocation of LHCII and the redistribution of
8507 excitation energy (state transitions) between photosystems(3,4). In the
8508 long term, imbalances in energy distribution between photosystems are
8509 counteracted by adjusting photosystem stoichiometry(5,6). In the green
8510 alga Chlamydomonas and the plant Arabidopsis, state transitions require
8511 the orthologous protein kinases STT7 and STN7, respectively(7,8). Here
8512 we show that in Arabidopsis a second protein kinase, STN8, is required
8513 for the quantitative phosphorylation of PSII core proteins. However,
8514 PSII activity under high-intensity light is affected only slightly in
8515 stn8 mutants, and D1 turnover is indistinguishable from the wild type,
8516 implying that reversible protein phosphorylation is not essential for
8517 PSII repair. Acclimation to changes in light quality is defective in
8518 stn7 but not in stn8 mutants, indicating that short-term and long-term
8519 photosynthetic adaptations are coupled. Therefore the phosphorylation
8520 of LHCII, or of an unknown substrate of STN7, is also crucial for the
8521 control of photosynthetic gene expression.
8522 C1 Univ Munich, Dept Biol 1, Inst Bot, D-80638 Munich, Germany.
8523 Max Planck Inst Zuchtungsforsch, Abt Pflanzenzuchtung & Genet, D-50829 Cologne, Germany.
8524 Fdn Parco Tecnol Padano, I-26900 Lodi, Italy.
8525 Univ Jena, Lehrstuhl Pflanzenphysiol, D-07743 Jena, Germany.
8526 Univ Dusseldorf, Inst Biochem Pflanzen, D-40225 Dusseldorf, Germany.
8527 RP Leister, D, Univ Munich, Dept Biol 1, Inst Bot, Menzinger Str 67,
8528 D-80638 Munich, Germany.
8529 EM leister@lrz.uni-muenchen.de
8530 NR 30
8531 TC 0
8532 PU NATURE PUBLISHING GROUP
8533 PI LONDON
8534 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8535 SN 0028-0836
8536 J9 NATURE
8537 JI Nature
8538 PD OCT 20
8539 PY 2005
8540 VL 437
8541 IS 7062
8542 BP 1179
8543 EP 1182
8544 PG 4
8545 SC Multidisciplinary Sciences
8546 GA 975KD
8547 UT ISI:000232660500049
8548 ER
8549
8550 PT J
8551 AU Ha, SC
8552 Lowenhaupt, K
8553 Rich, A
8554 Kim, YG
8555 Kim, KK
8556 TI Crystal structure of a junction between B-DNA and Z-DNA reveals two
8557 extruded bases
8558 SO NATURE
8559 LA English
8560 DT Article
8561 ID HANDED Z-DNA; BIOLOGICAL FUNCTION; BINDING; GENE; PROMOTER; COMPLEX;
8562 FORMS; MODEL
8563 AB Left-handed Z-DNA is a higher-energy form of the double helix,
8564 stabilized by negative supercoiling generated by transcription or
8565 unwrapping nucleosomes(1). Regions near the transcription start site
8566 frequently contain sequence motifs favourable for forming Z-DNA(2), and
8567 formation of Z-DNA near the promoter region stimulates
8568 transcription(3,4). Z-DNA is also stabilized by specific protein
8569 binding; several proteins have been identified with low nanomolar
8570 binding constants(5-9). Z-DNA occurs in a dynamic state, forming as a
8571 result of physiological processes then relaxing to the right-handed
8572 B-DNA(1). Each time a DNA segment turns into Z-DNA, two B-Z junctions
8573 form. These have been examined extensively(10-12), but their structure
8574 was unknown. Here we describe the structure of a B-Z junction as
8575 revealed by X-ray crystallography at 2.6 angstrom resolution. A
8576 15-base-pair segment of DNA is stabilized at one end in the Z
8577 conformation by Z-DNA binding proteins, while the other end remains
8578 B-DNA. Continuous stacking of bases between B-DNA and Z-DNA segments is
8579 found, with the breaking of one base pair at the junction and extrusion
8580 of the bases on each side (Fig. 1). These extruded bases may be sites
8581 for DNA modification.
8582 C1 Sungkyunkwan Univ, Sch Med, Samsung Biomed Res Inst, Dept Mol Cell Biol, Suwon 440746, South Korea.
8583 Sungkyunkwan Univ, Sungkyunkwan Adv Inst Nanotecnol, Suwon 440746, South Korea.
8584 MIT, Dept Biol, Cambridge, MA 02139 USA.
8585 Chung Ang Univ, Coll Med, Dept Biochem, Seoul 156756, South Korea.
8586 RP Kim, KK, Sungkyunkwan Univ, Sch Med, Samsung Biomed Res Inst, Dept Mol
8587 Cell Biol, Suwon 440746, South Korea.
8588 EM ygkimmit@cau.ac.kr
8589 kkim@med.skku.ac.kr
8590 NR 31
8591 TC 1
8592 PU NATURE PUBLISHING GROUP
8593 PI LONDON
8594 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8595 SN 0028-0836
8596 J9 NATURE
8597 JI Nature
8598 PD OCT 20
8599 PY 2005
8600 VL 437
8601 IS 7062
8602 BP 1183
8603 EP 1186
8604 PG 4
8605 SC Multidisciplinary Sciences
8606 GA 975KD
8607 UT ISI:000232660500050
8608 ER
8609
8610 PT J
8611 AU Callaghan, AJ
8612 Marcaida, MJ
8613 Stead, JA
8614 McDowall, KJ
8615 Scott, WG
8616 Luisi, BF
8617 TI Structure of Escherichia coli RNase E catalytic domain and implications
8618 for RNA turnover
8619 SO NATURE
8620 LA English
8621 DT Article
8622 ID 16S RIBOSOMAL-RNA; MESSENGER-RNA; RIBONUCLEASE-E; QUATERNARY STRUCTURE;
8623 TERMINAL HALF; GENE; DEGRADATION; SPECIFICITY; DEGRADOSOME; SITE
8624 AB The coordinated regulation of gene expression is required for
8625 homeostasis, growth and development in all organisms. Such coordination
8626 may be partly achieved at the level of messenger RNA stability(1), in
8627 which the targeted destruction of subsets of transcripts generates the
8628 potential for cross-regulating metabolic pathways. In Escherichia coli,
8629 the balance and composition of the transcript population is affected by
8630 RNase E, an essential endoribonuclease that not only turns over RNA but
8631 also processes certain key RNA precursors(2-10). RNase E cleaves RNA
8632 internally, but its catalytic power is determined by the 50 terminus of
8633 the substrate, even if this lies at a distance from the cutting
8634 site(11-14). Here we report crystal structures of the catalytic domain
8635 of RNase E as trapped allosteric intermediates with RNA substrates.
8636 Four subunits of RNase E catalytic domain associate into an interwoven
8637 quaternary structure, explaining why the subunit organization is
8638 required for catalytic activity. The subdomain encompassing the active
8639 site is structurally congruent to a deoxyribonuclease, making an
8640 unexpected link in the evolutionary history of RNA and DNA nucleases.
8641 The structure explains how the recognition of the 50 terminus of the
8642 substrate may trigger catalysis and also sheds light on the question of
8643 how RNase E might selectively process, rather than destroy, specific
8644 RNA precursors.
8645 C1 Univ Cambridge, Dept Biochem, Cambridge CB2 1GA, England.
8646 Univ Leeds, Astbury Ctr Struct Mol Biol, Leeds LS2 9JT, W Yorkshire, England.
8647 Univ Calif Santa Cruz, Dept Chem & Biochem, Santa Cruz, CA 95064 USA.
8648 Univ Calif Santa Cruz, Sinsheimer Labs, Ctr Mol Biol RNA, Santa Cruz, CA 95064 USA.
8649 RP Luisi, BF, Univ Cambridge, Dept Biochem, 80 Tennis Court Rd, Cambridge
8650 CB2 1GA, England.
8651 EM ben@cryst.bioc.cam.ac.uk
8652 NR 30
8653 TC 0
8654 PU NATURE PUBLISHING GROUP
8655 PI LONDON
8656 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8657 SN 0028-0836
8658 J9 NATURE
8659 JI Nature
8660 PD OCT 20
8661 PY 2005
8662 VL 437
8663 IS 7062
8664 BP 1187
8665 EP 1191
8666 PG 5
8667 SC Multidisciplinary Sciences
8668 GA 975KD
8669 UT ISI:000232660500051
8670 ER
8671
8672 PT J
8673 AU Gershon, D
8674 TI DNA microarrays: More than than gene expression
8675 SO NATURE
8676 LA English
8677 DT Article
8678 NR 0
8679 TC 0
8680 PU NATURE PUBLISHING GROUP
8681 PI LONDON
8682 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8683 SN 0028-0836
8684 J9 NATURE
8685 JI Nature
8686 PD OCT 20
8687 PY 2005
8688 VL 437
8689 IS 7062
8690 BP 1195
8691 EP 1200
8692 PG 6
8693 SC Multidisciplinary Sciences
8694 GA 975KD
8695 UT ISI:000232660500052
8696 ER
8697
8698 PT J
8699 AU Crumey, A
8700 TI Calculation quest - And the winner is...
8701 SO NATURE
8702 LA English
8703 DT Editorial Material
8704 NR 0
8705 TC 0
8706 PU NATURE PUBLISHING GROUP
8707 PI LONDON
8708 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8709 SN 0028-0836
8710 J9 NATURE
8711 JI Nature
8712 PD OCT 20
8713 PY 2005
8714 VL 437
8715 IS 7062
8716 BP 1206
8717 EP 1206
8718 PG 1
8719 SC Multidisciplinary Sciences
8720 GA 975KD
8721 UT ISI:000232660500053
8722 ER
8723
8724 PT J
8725 AU [Anon]
8726 TI Peace and honour
8727 SO NATURE
8728 LA English
8729 DT Editorial Material
8730 NR 1
8731 TC 0
8732 PU NATURE PUBLISHING GROUP
8733 PI LONDON
8734 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8735 SN 0028-0836
8736 J9 NATURE
8737 JI Nature
8738 PD OCT 13
8739 PY 2005
8740 VL 437
8741 IS 7061
8742 BP 927
8743 EP 927
8744 PG 1
8745 SC Multidisciplinary Sciences
8746 GA 973AU
8747 UT ISI:000232496100001
8748 ER
8749
8750 PT J
8751 AU [Anon]
8752 TI From rhetoric to reality
8753 SO NATURE
8754 LA English
8755 DT Editorial Material
8756 NR 0
8757 TC 0
8758 PU NATURE PUBLISHING GROUP
8759 PI LONDON
8760 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8761 SN 0028-0836
8762 J9 NATURE
8763 JI Nature
8764 PD OCT 13
8765 PY 2005
8766 VL 437
8767 IS 7061
8768 BP 927
8769 EP 928
8770 PG 2
8771 SC Multidisciplinary Sciences
8772 GA 973AU
8773 UT ISI:000232496100002
8774 ER
8775
8776 PT J
8777 AU [Anon]
8778 TI Advise the president
8779 SO NATURE
8780 LA English
8781 DT Editorial Material
8782 NR 0
8783 TC 0
8784 PU NATURE PUBLISHING GROUP
8785 PI LONDON
8786 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8787 SN 0028-0836
8788 J9 NATURE
8789 JI Nature
8790 PD OCT 13
8791 PY 2005
8792 VL 437
8793 IS 7061
8794 BP 928
8795 EP 928
8796 PG 1
8797 SC Multidisciplinary Sciences
8798 GA 973AU
8799 UT ISI:000232496100003
8800 ER
8801
8802 PT J
8803 AU Check, E
8804 TI US progressives fight for a voice in bioethics
8805 SO NATURE
8806 LA English
8807 DT News Item
8808 NR 1
8809 TC 0
8810 PU NATURE PUBLISHING GROUP
8811 PI LONDON
8812 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8813 SN 0028-0836
8814 J9 NATURE
8815 JI Nature
8816 PD OCT 13
8817 PY 2005
8818 VL 437
8819 IS 7061
8820 BP 932
8821 EP 933
8822 PG 2
8823 SC Multidisciplinary Sciences
8824 GA 973AU
8825 UT ISI:000232496100004
8826 ER
8827
8828 PT J
8829 AU Giles, J
8830 TI Nuclear group nabs peace prize
8831 SO NATURE
8832 LA English
8833 DT News Item
8834 NR 0
8835 TC 0
8836 PU NATURE PUBLISHING GROUP
8837 PI LONDON
8838 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8839 SN 0028-0836
8840 J9 NATURE
8841 JI Nature
8842 PD OCT 13
8843 PY 2005
8844 VL 437
8845 IS 7061
8846 BP 932
8847 EP 933
8848 PG 2
8849 SC Multidisciplinary Sciences
8850 GA 973AU
8851 UT ISI:000232496100005
8852 ER
8853
8854 PT J
8855 AU Dalton, R
8856 TI More evidence for hobbit unearthed as diggers are refused access to cave
8857 SO NATURE
8858 LA English
8859 DT News Item
8860 NR 2
8861 TC 0
8862 PU NATURE PUBLISHING GROUP
8863 PI LONDON
8864 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8865 SN 0028-0836
8866 J9 NATURE
8867 JI Nature
8868 PD OCT 13
8869 PY 2005
8870 VL 437
8871 IS 7061
8872 BP 934
8873 EP 935
8874 PG 2
8875 SC Multidisciplinary Sciences
8876 GA 973AU
8877 UT ISI:000232496100006
8878 ER
8879
8880 PT J
8881 AU Hopkin, M
8882 TI The life of a hobbit
8883 SO NATURE
8884 LA English
8885 DT News Item
8886 NR 0
8887 TC 0
8888 PU NATURE PUBLISHING GROUP
8889 PI LONDON
8890 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8891 SN 0028-0836
8892 J9 NATURE
8893 JI Nature
8894 PD OCT 13
8895 PY 2005
8896 VL 437
8897 IS 7061
8898 BP 935
8899 EP 935
8900 PG 1
8901 SC Multidisciplinary Sciences
8902 GA 973AU
8903 UT ISI:000232496100007
8904 ER
8905
8906 PT J
8907 AU Butler, D
8908 TI Indonesia struggles to control bird flu outbreak
8909 SO NATURE
8910 LA English
8911 DT Editorial Material
8912 NR 2
8913 TC 0
8914 PU NATURE PUBLISHING GROUP
8915 PI LONDON
8916 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8917 SN 0028-0836
8918 J9 NATURE
8919 JI Nature
8920 PD OCT 13
8921 PY 2005
8922 VL 437
8923 IS 7061
8924 BP 937
8925 EP 937
8926 PG 1
8927 SC Multidisciplinary Sciences
8928 GA 973AU
8929 UT ISI:000232496100008
8930 ER
8931
8932 PT J
8933 AU Ball, P
8934 TI Chemical exchange captures Nobel
8935 SO NATURE
8936 LA English
8937 DT News Item
8938 NR 0
8939 TC 0
8940 PU NATURE PUBLISHING GROUP
8941 PI LONDON
8942 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8943 SN 0028-0836
8944 J9 NATURE
8945 JI Nature
8946 PD OCT 13
8947 PY 2005
8948 VL 437
8949 IS 7061
8950 BP 938
8951 EP 938
8952 PG 1
8953 SC Multidisciplinary Sciences
8954 GA 973AU
8955 UT ISI:000232496100009
8956 ER
8957
8958 PT J
8959 AU Nadis, S
8960 TI Ig Nobels hail world's longest-running experiment
8961 SO NATURE
8962 LA English
8963 DT News Item
8964 NR 0
8965 TC 0
8966 PU NATURE PUBLISHING GROUP
8967 PI LONDON
8968 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8969 SN 0028-0836
8970 J9 NATURE
8971 JI Nature
8972 PD OCT 13
8973 PY 2005
8974 VL 437
8975 IS 7061
8976 BP 938
8977 EP 939
8978 PG 2
8979 SC Multidisciplinary Sciences
8980 GA 973AU
8981 UT ISI:000232496100010
8982 ER
8983
8984 PT J
8985 AU von Bubnoff, A
8986 TI The 1918 flu virus is resurrected (vol 437, pg 794, 2005)
8987 SO NATURE
8988 LA English
8989 DT Correction
8990 NR 1
8991 TC 0
8992 PU NATURE PUBLISHING GROUP
8993 PI LONDON
8994 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
8995 SN 0028-0836
8996 J9 NATURE
8997 JI Nature
8998 PD OCT 13
8999 PY 2005
9000 VL 437
9001 IS 7061
9002 BP 940
9003 EP 940
9004 PG 1
9005 SC Multidisciplinary Sciences
9006 GA 973AU
9007 UT ISI:000232496100011
9008 ER
9009
9010 PT J
9011 AU Frantz, S
9012 TI Playing dirty
9013 SO NATURE
9014 LA English
9015 DT News Item
9016 ID DRUGS
9017 NR 7
9018 TC 0
9019 PU NATURE PUBLISHING GROUP
9020 PI LONDON
9021 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9022 SN 0028-0836
9023 J9 NATURE
9024 JI Nature
9025 PD OCT 13
9026 PY 2005
9027 VL 437
9028 IS 7061
9029 BP 942
9030 EP 943
9031 PG 2
9032 SC Multidisciplinary Sciences
9033 GA 973AU
9034 UT ISI:000232496100012
9035 ER
9036
9037 PT J
9038 AU Marris, E
9039 TI The forgotten ecosystem
9040 SO NATURE
9041 LA English
9042 DT News Item
9043 NR 1
9044 TC 0
9045 PU NATURE PUBLISHING GROUP
9046 PI LONDON
9047 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9048 SN 0028-0836
9049 J9 NATURE
9050 JI Nature
9051 PD OCT 13
9052 PY 2005
9053 VL 437
9054 IS 7061
9055 BP 944
9056 EP 945
9057 PG 2
9058 SC Multidisciplinary Sciences
9059 GA 973AU
9060 UT ISI:000232496100013
9061 ER
9062
9063 PT J
9064 AU Abbott, A
9065 TI The maestro of minds
9066 SO NATURE
9067 LA English
9068 DT News Item
9069 NR 3
9070 TC 0
9071 PU NATURE PUBLISHING GROUP
9072 PI LONDON
9073 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9074 SN 0028-0836
9075 J9 NATURE
9076 JI Nature
9077 PD OCT 13
9078 PY 2005
9079 VL 437
9080 IS 7061
9081 BP 946
9082 EP 947
9083 PG 2
9084 SC Multidisciplinary Sciences
9085 GA 973AU
9086 UT ISI:000232496100014
9087 ER
9088
9089 PT J
9090 AU Gewin, V
9091 TI The technology trap
9092 SO NATURE
9093 LA English
9094 DT News Item
9095 NR 1
9096 TC 0
9097 PU NATURE PUBLISHING GROUP
9098 PI LONDON
9099 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9100 SN 0028-0836
9101 J9 NATURE
9102 JI Nature
9103 PD OCT 13
9104 PY 2005
9105 VL 437
9106 IS 7061
9107 BP 948
9108 EP 949
9109 PG 2
9110 SC Multidisciplinary Sciences
9111 GA 973AU
9112 UT ISI:000232496100015
9113 ER
9114
9115 PT J
9116 AU [Anon]
9117 CA Wood Mackenzie
9118 TI Biotechnology stocks
9119 SO NATURE
9120 LA English
9121 DT News Item
9122 NR 1
9123 TC 0
9124 PU NATURE PUBLISHING GROUP
9125 PI LONDON
9126 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9127 SN 0028-0836
9128 J9 NATURE
9129 JI Nature
9130 PD OCT 13
9131 PY 2005
9132 VL 437
9133 IS 7061
9134 BP 949
9135 EP 949
9136 PG 1
9137 SC Multidisciplinary Sciences
9138 GA 973AU
9139 UT ISI:000232496100016
9140 ER
9141
9142 PT J
9143 AU Schlaepfer, MA
9144 TI Re-wilding: a bold plan that needs native megafauna
9145 SO NATURE
9146 LA English
9147 DT Letter
9148 C1 Univ Texas, Austin, TX 78712 USA.
9149 RP Schlaepfer, MA, Univ Texas, Austin, TX 78712 USA.
9150 NR 3
9151 TC 0
9152 PU NATURE PUBLISHING GROUP
9153 PI LONDON
9154 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9155 SN 0028-0836
9156 J9 NATURE
9157 JI Nature
9158 PD OCT 13
9159 PY 2005
9160 VL 437
9161 IS 7061
9162 BP 951
9163 EP 951
9164 PG 1
9165 SC Multidisciplinary Sciences
9166 GA 973AU
9167 UT ISI:000232496100017
9168 ER
9169
9170 PT J
9171 AU Kutschera, U
9172 TI Evolution was fine, just not in the case of humans
9173 SO NATURE
9174 LA English
9175 DT Letter
9176 C1 Univ Kassel, Inst Biol, D-34109 Kassel, Germany.
9177 RP Kutschera, U, Univ Kassel, Inst Biol, Heinrich Plett Str 40, D-34109
9178 Kassel, Germany.
9179 NR 3
9180 TC 0
9181 PU NATURE PUBLISHING GROUP
9182 PI LONDON
9183 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9184 SN 0028-0836
9185 J9 NATURE
9186 JI Nature
9187 PD OCT 13
9188 PY 2005
9189 VL 437
9190 IS 7061
9191 BP 951
9192 EP 951
9193 PG 1
9194 SC Multidisciplinary Sciences
9195 GA 973AU
9196 UT ISI:000232496100018
9197 ER
9198
9199 PT J
9200 AU Zerhouni, E
9201 TI NIH moved quickly to help researchers after Katrina
9202 SO NATURE
9203 LA English
9204 DT Letter
9205 C1 NIH, Bethesda, MD 20892 USA.
9206 RP Zerhouni, E, NIH, 9000 Rockville Pike, Bethesda, MD 20892 USA.
9207 NR 1
9208 TC 0
9209 PU NATURE PUBLISHING GROUP
9210 PI LONDON
9211 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9212 SN 0028-0836
9213 J9 NATURE
9214 JI Nature
9215 PD OCT 13
9216 PY 2005
9217 VL 437
9218 IS 7061
9219 BP 951
9220 EP 951
9221 PG 1
9222 SC Multidisciplinary Sciences
9223 GA 973AU
9224 UT ISI:000232496100019
9225 ER
9226
9227 PT J
9228 AU Mehrotra, M
9229 TI Indian players in some of IT and biotech's top teams
9230 SO NATURE
9231 LA English
9232 DT Letter
9233 C1 Portola Pharmaceut, San Francisco, CA 94080 USA.
9234 RP Mehrotra, M, Portola Pharmaceut, 270 E Grand Ave, San Francisco, CA
9235 94080 USA.
9236 NR 1
9237 TC 0
9238 PU NATURE PUBLISHING GROUP
9239 PI LONDON
9240 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9241 SN 0028-0836
9242 J9 NATURE
9243 JI Nature
9244 PD OCT 13
9245 PY 2005
9246 VL 437
9247 IS 7061
9248 BP 951
9249 EP 951
9250 PG 1
9251 SC Multidisciplinary Sciences
9252 GA 973AU
9253 UT ISI:000232496100020
9254 ER
9255
9256 PT J
9257 AU Edwards, AWF
9258 TI System to rank scientists was pedalled by Jeffreys
9259 SO NATURE
9260 LA English
9261 DT Letter
9262 C1 Univ Cambridge Gonville & Caius Coll, Cambridge CB2 1TA, England.
9263 RP Edwards, AWF, Univ Cambridge Gonville & Caius Coll, Cambridge CB2 1TA,
9264 England.
9265 NR 1
9266 TC 0
9267 PU NATURE PUBLISHING GROUP
9268 PI LONDON
9269 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9270 SN 0028-0836
9271 J9 NATURE
9272 JI Nature
9273 PD OCT 13
9274 PY 2005
9275 VL 437
9276 IS 7061
9277 BP 951
9278 EP 951
9279 PG 1
9280 SC Multidisciplinary Sciences
9281 GA 973AU
9282 UT ISI:000232496100021
9283 ER
9284
9285 PT J
9286 AU Bluestein, HB
9287 TI Divine wind: The history and science of hurricanes
9288 SO NATURE
9289 LA English
9290 DT Book Review
9291 C1 Univ Oklahoma, Sch Meteorol, Norman, OK 73019 USA.
9292 RP Bluestein, HB, Univ Oklahoma, Sch Meteorol, Norman, OK 73019 USA.
9293 NR 2
9294 TC 0
9295 PU NATURE PUBLISHING GROUP
9296 PI LONDON
9297 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9298 SN 0028-0836
9299 J9 NATURE
9300 JI Nature
9301 PD OCT 13
9302 PY 2005
9303 VL 437
9304 IS 7061
9305 BP 953
9306 EP 954
9307 PG 2
9308 SC Multidisciplinary Sciences
9309 GA 973AU
9310 UT ISI:000232496100022
9311 ER
9312
9313 PT J
9314 AU Sargent, M
9315 TI The fetal matrix: Evolution, development and disease
9316 SO NATURE
9317 LA English
9318 DT Book Review
9319 C1 Natl Inst Med Res, London NW7 1AA, England.
9320 RP Sargent, M, Natl Inst Med Res, Mill Hill, London NW7 1AA, England.
9321 NR 1
9322 TC 0
9323 PU NATURE PUBLISHING GROUP
9324 PI LONDON
9325 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9326 SN 0028-0836
9327 J9 NATURE
9328 JI Nature
9329 PD OCT 13
9330 PY 2005
9331 VL 437
9332 IS 7061
9333 BP 954
9334 EP 954
9335 PG 1
9336 SC Multidisciplinary Sciences
9337 GA 973AU
9338 UT ISI:000232496100023
9339 ER
9340
9341 PT J
9342 AU Howard, B
9343 TI Wormwood forest: A natural history of Chernobyl
9344 SO NATURE
9345 LA English
9346 DT Book Review
9347 C1 Lancaster Environm Ctr, Ctr Ecol & Hydrol, Lancaster LA1 4AP, England.
9348 RP Howard, B, Lancaster Environm Ctr, Ctr Ecol & Hydrol, Lib Ave,
9349 Lancaster LA1 4AP, England.
9350 NR 1
9351 TC 0
9352 PU NATURE PUBLISHING GROUP
9353 PI LONDON
9354 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9355 SN 0028-0836
9356 J9 NATURE
9357 JI Nature
9358 PD OCT 13
9359 PY 2005
9360 VL 437
9361 IS 7061
9362 BP 955
9363 EP 955
9364 PG 1
9365 SC Multidisciplinary Sciences
9366 GA 973AU
9367 UT ISI:000232496100024
9368 ER
9369
9370 PT J
9371 AU Lieberman, DE
9372 TI Palaeoanthropology - Further fossil finds from flores
9373 SO NATURE
9374 LA English
9375 DT Editorial Material
9376 ID INDONESIA; EVOLUTION; HOMININ; BRAIN; HOMO
9377 C1 Harvard Univ, Peabody Museum, Cambridge, MA 02138 USA.
9378 RP Lieberman, DE, Harvard Univ, Peabody Museum, 11 Divin Ave, Cambridge,
9379 MA 02138 USA.
9380 EM danlieb@fas.harvard.edu
9381 NR 13
9382 TC 0
9383 PU NATURE PUBLISHING GROUP
9384 PI LONDON
9385 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9386 SN 0028-0836
9387 J9 NATURE
9388 JI Nature
9389 PD OCT 13
9390 PY 2005
9391 VL 437
9392 IS 7061
9393 BP 957
9394 EP 958
9395 PG 2
9396 SC Multidisciplinary Sciences
9397 GA 973AU
9398 UT ISI:000232496100025
9399 ER
9400
9401 PT J
9402 AU Feldman, PD
9403 TI Planetary science - The impact of deep impact
9404 SO NATURE
9405 LA English
9406 DT Editorial Material
9407 C1 Johns Hopkins Univ, Dept Phys & Astron, Baltimore, MD 21218 USA.
9408 RP Feldman, PD, Johns Hopkins Univ, Dept Phys & Astron, Baltimore, MD
9409 21218 USA.
9410 EM pdf@pha.jhu.edu
9411 NR 8
9412 TC 0
9413 PU NATURE PUBLISHING GROUP
9414 PI LONDON
9415 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9416 SN 0028-0836
9417 J9 NATURE
9418 JI Nature
9419 PD OCT 13
9420 PY 2005
9421 VL 437
9422 IS 7061
9423 BP 958
9424 EP 959
9425 PG 2
9426 SC Multidisciplinary Sciences
9427 GA 973AU
9428 UT ISI:000232496100026
9429 ER
9430
9431 PT J
9432 AU Moore, PD
9433 TI Ecology - Roots of stability
9434 SO NATURE
9435 LA English
9436 DT Editorial Material
9437 ID BIODIVERSITY; DIVERSITY
9438 C1 Univ London Kings Coll, Dept Biochem, London SE1 9NH, England.
9439 RP Moore, PD, Univ London Kings Coll, Dept Biochem, Franklin Wilkins
9440 Bldg,150 Stamford St, London SE1 9NH, England.
9441 EM peter.moore@kcl.ac.uk
9442 NR 7
9443 TC 1
9444 PU NATURE PUBLISHING GROUP
9445 PI LONDON
9446 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9447 SN 0028-0836
9448 J9 NATURE
9449 JI Nature
9450 PD OCT 13
9451 PY 2005
9452 VL 437
9453 IS 7061
9454 BP 959
9455 EP +
9456 PG 2
9457 SC Multidisciplinary Sciences
9458 GA 973AU
9459 UT ISI:000232496100027
9460 ER
9461
9462 PT J
9463 AU Daw, R
9464 TI Materials science - At a stretch
9465 SO NATURE
9466 LA English
9467 DT Editorial Material
9468 NR 1
9469 TC 0
9470 PU NATURE PUBLISHING GROUP
9471 PI LONDON
9472 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9473 SN 0028-0836
9474 J9 NATURE
9475 JI Nature
9476 PD OCT 13
9477 PY 2005
9478 VL 437
9479 IS 7061
9480 BP 961
9481 EP 961
9482 PG 1
9483 SC Multidisciplinary Sciences
9484 GA 973AU
9485 UT ISI:000232496100028
9486 ER
9487
9488 PT J
9489 AU Bulsara, AR
9490 TI Device physics - No-nuisance noise
9491 SO NATURE
9492 LA English
9493 DT Editorial Material
9494 ID STOCHASTIC RESONANCE
9495 C1 Space & Naval Warfare Syst Ctr, San Diego, CA 92152 USA.
9496 RP Bulsara, AR, US Off Naval Res Global, London, England.
9497 EM bulsara@spawar.navy.mil
9498 NR 10
9499 TC 0
9500 PU NATURE PUBLISHING GROUP
9501 PI LONDON
9502 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9503 SN 0028-0836
9504 J9 NATURE
9505 JI Nature
9506 PD OCT 13
9507 PY 2005
9508 VL 437
9509 IS 7061
9510 BP 962
9511 EP 963
9512 PG 2
9513 SC Multidisciplinary Sciences
9514 GA 973AU
9515 UT ISI:000232496100029
9516 ER
9517
9518 PT J
9519 AU Kishimoto, T
9520 TI Developmental biology - Cell cycle unleashed
9521 SO NATURE
9522 LA English
9523 DT Editorial Material
9524 ID ANAPHASE-PROMOTING COMPLEX; CYTOSTATIC FACTOR ARREST; METAPHASE ARREST;
9525 VERTEBRATE EGGS; XENOPUS EGGS; KINASE PLX1; FERTILIZATION; EMI1
9526 C1 Tokyo Inst Technol, Grad Sch Biosci, Lab Cell & Dev Biol, Midori Ku, Yokohama, Kanagawa 2268501, Japan.
9527 RP Kishimoto, T, Tokyo Inst Technol, Grad Sch Biosci, Lab Cell & Dev Biol,
9528 Midori Ku, Yokohama, Kanagawa 2268501, Japan.
9529 EM tkishimo@bio.titech.ac.jp
9530 NR 13
9531 TC 0
9532 PU NATURE PUBLISHING GROUP
9533 PI LONDON
9534 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9535 SN 0028-0836
9536 J9 NATURE
9537 JI Nature
9538 PD OCT 13
9539 PY 2005
9540 VL 437
9541 IS 7061
9542 BP 963
9543 EP +
9544 PG 2
9545 SC Multidisciplinary Sciences
9546 GA 973AU
9547 UT ISI:000232496100030
9548 ER
9549
9550 PT J
9551 AU Penuelas, J
9552 TI Plant physiology - A big issue for trees
9553 SO NATURE
9554 LA English
9555 DT Editorial Material
9556 ID LEAF SENESCENCE
9557 C1 Univ Autonoma Barcelona, CSIC, CEAB, Bellaterra 08193, Catalonia, Spain.
9558 Univ Autonoma Barcelona, Ctr Ecol Res & Forestry Applicat, Bellaterra 08193, Catalonia, Spain.
9559 RP Penuelas, J, Univ Autonoma Barcelona, CSIC, CEAB, Bellaterra 08193,
9560 Catalonia, Spain.
9561 EM josep.penuelas@uab.es
9562 NR 8
9563 TC 0
9564 PU NATURE PUBLISHING GROUP
9565 PI LONDON
9566 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9567 SN 0028-0836
9568 J9 NATURE
9569 JI Nature
9570 PD OCT 13
9571 PY 2005
9572 VL 437
9573 IS 7061
9574 BP 965
9575 EP 966
9576 PG 2
9577 SC Multidisciplinary Sciences
9578 GA 973AU
9579 UT ISI:000232496100031
9580 ER
9581
9582 PT J
9583 AU Lu, HY
9584 Yang, XY
9585 Ye, ML
9586 Liu, KB
9587 Xia, ZK
9588 Ren, XY
9589 Cai, LH
9590 Wu, NQ
9591 Liu, TS
9592 TI Millet noodles in Late Neolithic China - A remarkable find allows the
9593 reconstruction of the earliest recorded preparation of noodles.
9594 SO NATURE
9595 LA English
9596 DT Editorial Material
9597 ID PHYTOLITHS; STARCH
9598 C1 Chinese Acad Sci, Inst Geol & Geophys, Beijing 100029, Peoples R China.
9599 Chinese Acad Sci, Inst Tibetan Plateau Res, Beijing 100085, Peoples R China.
9600 Chinese Acad Social Sci, Inst Archaeol, Beijing 100710, Peoples R China.
9601 Louisiana State Univ, Dept Geog & Anthropol, Baton Rouge, LA 70803 USA.
9602 Peking Univ, Coll Environm Sci, Beijing 100871, Peoples R China.
9603 Qinghai Prov Inst Cultural Rel & Archaeol, Sining 810007, Peoples R China.
9604 RP Lu, HY, Chinese Acad Sci, Inst Geol & Geophys, Beijing 100029, Peoples
9605 R China.
9606 EM houyuanlu@mail.iggcas.ac.cn
9607 NR 12
9608 TC 1
9609 PU NATURE PUBLISHING GROUP
9610 PI LONDON
9611 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9612 SN 0028-0836
9613 J9 NATURE
9614 JI Nature
9615 PD OCT 13
9616 PY 2005
9617 VL 437
9618 IS 7061
9619 BP 967
9620 EP 968
9621 PG 2
9622 SC Multidisciplinary Sciences
9623 GA 973AU
9624 UT ISI:000232496100032
9625 ER
9626
9627 PT J
9628 AU Teo, KBK
9629 Minoux, E
9630 Hudanski, L
9631 Peauger, F
9632 Schnell, JP
9633 Gangloff, L
9634 Legagneux, P
9635 Dieumegard, D
9636 Amaratunga, GAJ
9637 Milne, WI
9638 TI Microwave devices - Carbon nanotubes as cold cathodes
9639 SO NATURE
9640 LA English
9641 DT Editorial Material
9642 C1 Univ Cambridge, Dept Engn, Cambridge CB2 1PZ, England.
9643 Thales Res & Technol, F-91767 Palaiseau, France.
9644 Thales Electron Devices, F-78141 Velizy Villacoublay, France.
9645 RP Teo, KBK, Univ Cambridge, Dept Engn, Cambridge CB2 1PZ, England.
9646 EM wim@eng.cam.ac.uk
9647 NR 3
9648 TC 0
9649 PU NATURE PUBLISHING GROUP
9650 PI LONDON
9651 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9652 SN 0028-0836
9653 J9 NATURE
9654 JI Nature
9655 PD OCT 13
9656 PY 2005
9657 VL 437
9658 IS 7061
9659 BP 968
9660 EP 968
9661 PG 1
9662 SC Multidisciplinary Sciences
9663 GA 973AU
9664 UT ISI:000232496100033
9665 ER
9666
9667 PT J
9668 AU Bakun, WH
9669 Aagaard, B
9670 Dost, B
9671 Ellsworth, WL
9672 Hardebeck, JL
9673 Harris, RA
9674 Ji, C
9675 Johnston, MJS
9676 Langbein, J
9677 Lienkaemper, JJ
9678 Michael, AJ
9679 Murray, JR
9680 Nadeau, RM
9681 Reasenberg, PA
9682 Reichle, MS
9683 Roeloffs, EA
9684 Shakal, A
9685 Simpson, RW
9686 Waldhauser, F
9687 TI Implications for prediction and hazard assessment from the 2004
9688 Parkfield earthquake
9689 SO NATURE
9690 LA English
9691 DT Article
9692 ID SAN-ANDREAS FAULT; CALIFORNIA EARTHQUAKE; RECURRENCE; SLIP; BEHAVIOR;
9693 RUPTURE; MICROEARTHQUAKES; SEISMICITY; SEGMENT; MODELS
9694 AB Obtaining high-quality measurements close to a large earthquake is not
9695 easy: one has to be in the right place at the right time with the right
9696 instruments. Such a convergence happened, for the first time, when the
9697 28 September 2004 Parkfield, California, earthquake occurred on the San
9698 Andreas fault in the middle of a dense network of instruments designed
9699 to record it. The resulting data reveal aspects of the earthquake
9700 process never before seen. Here we show what these data, when combined
9701 with data from earlier Parkfield earthquakes, tell us about earthquake
9702 physics and earthquake prediction. The 2004 Parkfield earthquake, with
9703 its lack of obvious precursors, demonstrates that reliable short-term
9704 earthquake prediction still is not achievable. To reduce the societal
9705 impact of earthquakes now, we should focus on developing the next
9706 generation of models that can provide better predictions of the
9707 strength and location of damaging ground shaking.
9708 C1 US Geol Survey, Menlo Pk, CA 94025 USA.
9709 Royal Netherlands Meteorol Inst, Seismol Div, NL-3730 AE De Bilt, Netherlands.
9710 CALTECH, Div Geol & Planetary Sci, Pasadena, CA 91125 USA.
9711 Univ Calif Berkeley, Seismol Lab, Berkeley, CA 94720 USA.
9712 Calif Geol Survey, Sacramento, CA 95814 USA.
9713 US Geol Survey, Vancouver, WA 98683 USA.
9714 Columbia Univ, Lamont Doherty Earth Observ, Palisades, NY 10964 USA.
9715 RP Bakun, WH, US Geol Survey, 345 Middlefield Rd, Menlo Pk, CA 94025 USA.
9716 EM bakun@usgs.gov
9717 NR 51
9718 TC 1
9719 PU NATURE PUBLISHING GROUP
9720 PI LONDON
9721 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9722 SN 0028-0836
9723 J9 NATURE
9724 JI Nature
9725 PD OCT 13
9726 PY 2005
9727 VL 437
9728 IS 7061
9729 BP 969
9730 EP 974
9731 PG 6
9732 SC Multidisciplinary Sciences
9733 GA 973AU
9734 UT ISI:000232496100034
9735 ER
9736
9737 PT J
9738 AU Mygind, PH
9739 Fischer, RL
9740 Schnorr, KM
9741 Hansen, MT
9742 Sonksen, CP
9743 Ludvigsen, S
9744 Raventos, D
9745 Buskov, S
9746 Christensen, B
9747 De Maria, L
9748 Taboureau, O
9749 Yaver, D
9750 Elvig-Jorgensen, SG
9751 Sorensen, MV
9752 Christensen, BE
9753 Kjaerulff, S
9754 Frimodt-Moller, N
9755 Lehrer, RI
9756 Zasloff, M
9757 Kristensen, HH
9758 TI Plectasin is a peptide antibiotic with therapeutic potential from a
9759 saprophytic fungus
9760 SO NATURE
9761 LA English
9762 DT Article
9763 ID ANTIMICROBIAL PEPTIDES; ANTIBACTERIAL ACTIVITY; INNATE IMMUNITY; DIRECT
9764 INACTIVATION; DEFENSINS; MECHANISM; PROTEIN; CATHELICIDINS; DIVERGENCE;
9765 PENICILLIN
9766 AB Animals and higher plants express endogenous peptide antibiotics called
9767 defensins. These small cysteine-rich peptides are active against
9768 bacteria, fungi and viruses. Here we describe plectasin - the first
9769 defensin to be isolated from a fungus, the saprophytic ascomycete
9770 Pseudoplectania nigrella. Plectasin has primary, secondary and tertiary
9771 structures that closely resemble those of defensins found in spiders,
9772 scorpions, dragonflies and mussels. Recombinant plectasin was produced
9773 at a very high, and commercially viable, yield and purity. In vitro,
9774 the recombinant peptide was especially active against Streptococcus
9775 pneumoniae, including strains resistant to conventional antibiotics.
9776 Plectasin showed extremely low toxicity in mice, and cured them of
9777 experimental peritonitis and pneumonia caused by S. pneumoniae as
9778 efficaciously as vancomycin and penicillin. These findings identify
9779 fungi as a novel source of antimicrobial defensins, and show the
9780 therapeutic potential of plectasin. They also suggest that the
9781 defensins of insects, molluscs and fungi arose from a common ancestral
9782 gene.
9783 C1 Novozymes AS, DK-2880 Bagsvaerd, Denmark.
9784 Statens Serum Inst, Natl Ctr Antimicrobials & Infect Control, DK-2300 Copenhagen, Denmark.
9785 Novo Nordisk AS, DK-2880 Bagsvaerd, Denmark.
9786 Novozymes Inc, Davis, CA 95616 USA.
9787 Univ Calif Los Angeles, David Geffen Sch Med, Dept Med, Los Angeles, CA 90095 USA.
9788 Georgetown Univ, Med Ctr, Dept Surg, Washington, DC 20007 USA.
9789 Georgetown Univ, Med Ctr, Dept Pediat, Washington, DC 20007 USA.
9790 RP Kristensen, HH, Novozymes AS, DK-2880 Bagsvaerd, Denmark.
9791 EM hahk@novozymes.com
9792 NR 46
9793 TC 1
9794 PU NATURE PUBLISHING GROUP
9795 PI LONDON
9796 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9797 SN 0028-0836
9798 J9 NATURE
9799 JI Nature
9800 PD OCT 13
9801 PY 2005
9802 VL 437
9803 IS 7061
9804 BP 975
9805 EP 980
9806 PG 6
9807 SC Multidisciplinary Sciences
9808 GA 973AU
9809 UT ISI:000232496100035
9810 ER
9811
9812 PT J
9813 AU Hu, RG
9814 Sheng, J
9815 Qi, X
9816 Xu, ZM
9817 Takahashi, TT
9818 Varshavsky, A
9819 TI The N-end rule pathway as a nitric oxide sensor controlling the levels
9820 of multiple regulators
9821 SO NATURE
9822 LA English
9823 DT Article
9824 ID RNA-PROTEIN TRANSFERASE; UBIQUITIN LIGASE; MICE LACKING;
9825 S-NITROSYLATION; DEGRADATION; RGS4; APOPTOSIS; SYSTEM; EXPRESSION;
9826 COMPONENT
9827 AB The conjugation of arginine to proteins is a part of the N- end rule
9828 pathway of protein degradation. Three amino (N)-terminal residues -
9829 aspartate, glutamate and cysteine - are arginylated by ATE1-encoded
9830 arginyl-transferases. Here we report that oxidation of N- terminal
9831 cysteine is essential for its arginylation. The in vivo oxidation of N-
9832 terminal cysteine, before its arginylation, is shown to require nitric
9833 oxide. We reconstituted this process in vitro as well. The levels of
9834 regulatory proteins bearing N- terminal cysteine, such as RGS4, RGS5
9835 and RGS16, are greatly increased in mouse ATE1(-/-) embryos, which lack
9836 arginylation. Stabilization of these proteins, the first physiological
9837 substrates of mammalian N- end rule pathway, may underlie
9838 cardiovascular defects in ATE1(-/-) embryos. Our findings identify the
9839 N- end rule pathway as a new nitric oxide sensor that functions through
9840 its ability to destroy specific regulatory proteins bearing N- terminal
9841 cysteine, at rates controlled by nitric oxide and apparently by oxygen
9842 as well.
9843 C1 CALTECH, Div Biol, Pasadena, CA 91125 USA.
9844 CALTECH, Div Chem & Chem Engn, Pasadena, CA 91125 USA.
9845 RP Varshavsky, A, CALTECH, Div Biol, Pasadena, CA 91125 USA.
9846 EM avarsh@caltech.edu
9847 NR 43
9848 TC 0
9849 PU NATURE PUBLISHING GROUP
9850 PI LONDON
9851 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9852 SN 0028-0836
9853 J9 NATURE
9854 JI Nature
9855 PD OCT 13
9856 PY 2005
9857 VL 437
9858 IS 7061
9859 BP 981
9860 EP 986
9861 PG 6
9862 SC Multidisciplinary Sciences
9863 GA 973AU
9864 UT ISI:000232496100036
9865 ER
9866
9867 PT J
9868 AU Kuppers, M
9869 Bertini, I
9870 Fornasier, S
9871 Gutierrez, PJ
9872 Hviid, SF
9873 Jorda, L
9874 Keller, HU
9875 Knollenberg, J
9876 Koschny, D
9877 Kramm, R
9878 Lara, LM
9879 Sierks, H
9880 Thomas, N
9881 Barbieri, C
9882 Lamy, P
9883 Rickman, H
9884 Rodrigo, R
9885 CA OSIRIS Team
9886 TI A large dust/ice ratio in the nucleus of comet 9P/Tempel 1
9887 SO NATURE
9888 LA English
9889 DT Article
9890 ID DEEP IMPACT; SIZE; EJECTA; OH
9891 AB Comets spend most of their life in a low-temperature environment far
9892 from the Sun. They are therefore relatively unprocessed and maintain
9893 information about the formation conditions of the planetary system, but
9894 the structure and composition of their nuclei are poorly understood.
9895 Although in situ(1) and remote(2) measurements have derived the global
9896 properties of some cometary nuclei, little is known about their
9897 interiors. The Deep Impact mission(3) shot a projectile into comet 9P/
9898 Tempel 1 in order to investigate its interior. Here we report the water
9899 vapour content (1.5 x 10(32) water molecules or 4.5 x 10(6) kg) and the
9900 cross-section of the dust (330 km(2) assuming an albedo of 0.1) created
9901 by the impact. The corresponding dust/ice mass ratio is probably larger
9902 than one, suggesting that comets are 'icy dirtballs' rather than 'dirty
9903 snowballs' as commonly believed(4). High dust velocities ( between 110
9904 m s(-1) and 300 m s(-1)) imply acceleration in the comet's coma,
9905 probably by water molecules sublimated by solar radiation. We did not
9906 find evidence of enhanced activity of 9P/ Tempel 1 in the days after
9907 the impact, suggesting that in general impacts of meteoroids are not
9908 the cause of cometary outbursts.
9909 C1 Max Planck Inst Sonnensyst Forsch, D-37191 Katlenburg Lindau, Germany.
9910 Univ Padua, Dept Astron, I-35100 Padua, Italy.
9911 Univ Padua, CISAS, I-35100 Padua, Italy.
9912 CSIC, Inst Astrofis Andalucia, E-18008 Granada, Spain.
9913 Traverse Siphon, Lab Astrophys Marseille, F-13376 Marseille, France.
9914 DLR Inst Planetary Res, D-12489 Berlin, Germany.
9915 European Space Agcy, ESTEC, SCI SB, NL-2200 AG Noordwijk, Netherlands.
9916 Univ Bern, Inst Phys, Abt Weltraumforsch & Planetol, CH-3012 Bern, Switzerland.
9917 Astron Observ, S-75120 Uppsala, Sweden.
9918 RP Kuppers, M, Max Planck Inst Sonnensyst Forsch, Max Planck Str 2,
9919 D-37191 Katlenburg Lindau, Germany.
9920 EM kueppers@mps.mpg.de
9921 NR 22
9922 TC 1
9923 PU NATURE PUBLISHING GROUP
9924 PI LONDON
9925 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9926 SN 0028-0836
9927 J9 NATURE
9928 JI Nature
9929 PD OCT 13
9930 PY 2005
9931 VL 437
9932 IS 7061
9933 BP 987
9934 EP 990
9935 PG 4
9936 SC Multidisciplinary Sciences
9937 GA 973AU
9938 UT ISI:000232496100037
9939 ER
9940
9941 PT J
9942 AU Tanaka, KL
9943 TI Geology and insolation-driven climatic history of Amazonian north polar
9944 materials on Mars
9945 SO NATURE
9946 LA English
9947 DT Article
9948 ID LAYERED DEPOSITS; GROUND ICE; SURFACE; EVOLUTION; MORPHOLOGY; ORIGIN
9949 AB Mariner 9 and Viking spacecraft images revealed that the polar regions
9950 of Mars, like those of Earth, record the planet's climate history.
9951 However, fundamental uncertainties regarding the materials, features,
9952 ages and processes constituting the geologic record remained(1-6).
9953 Recently acquired Mars Orbiter Laser Altimeter data(7) and Mars Orbiter
9954 Camera high-resolution images(8) from the Mars Global Surveyor
9955 spacecraft and moderately high-resolution Thermal Emission Imaging
9956 System visible images(9) from the Mars Odyssey spacecraft permit more
9957 comprehensive geologic and climatic analyses(10-17). Here I map and
9958 show the history of geologic materials and features in the north polar
9959 region that span the Amazonian period (similar to 3.0 Gyr ago to
9960 present) (18,19). Erosion and redeposition of putative circumpolar mud
9961 volcano deposits(15) ( formed by eruption of liquefied, fine-grained
9962 material) led to the formation of an Early Amazonian polar plateau
9963 consisting of dark layered materials. Crater ejecta superposed on
9964 pedestals indicate that a thin mantle was present during most of the
9965 Amazonian, suggesting generally higher obliquity and insolation
9966 conditions at the poles than at present. Brighter polar layered
9967 deposits rest unconformably on the dark layers and formed mainly during
9968 lower obliquity over the past 4 - 5Myr (ref. 20). Finally, the
9969 uppermost layers post-date the latest downtrend in obliquity < 20,000
9970 years ago(20).
9971 C1 US Geol Survey, Astrogeol Team, Flagstaff, AZ 86001 USA.
9972 RP Tanaka, KL, US Geol Survey, Astrogeol Team, 2255 N Gemini Dr,
9973 Flagstaff, AZ 86001 USA.
9974 EM ktanaka@usgs.gov
9975 NR 27
9976 TC 0
9977 PU NATURE PUBLISHING GROUP
9978 PI LONDON
9979 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
9980 SN 0028-0836
9981 J9 NATURE
9982 JI Nature
9983 PD OCT 13
9984 PY 2005
9985 VL 437
9986 IS 7061
9987 BP 991
9988 EP 994
9989 PG 4
9990 SC Multidisciplinary Sciences
9991 GA 973AU
9992 UT ISI:000232496100038
9993 ER
9994
9995 PT J
9996 AU Badzey, RL
9997 Mohanty, P
9998 TI Coherent signal amplification in bistable nanomechanical oscillators by
9999 stochastic resonance
10000 SO NATURE
10001 LA English
10002 DT Article
10003 ID SYSTEM; NOISE
10004 AB Stochastic resonance(1,2) is a counterintuitive concept: the addition
10005 of noise to a noisy system induces coherent amplification of its
10006 response. First suggested as a mechanism for the cyclic recurrence of
10007 ice ages, stochastic resonance has been seen in a wide variety of
10008 macroscopic physical systems: bistable ring lasers(3), superconducting
10009 quantum interference devices(4,5) (SQUIDs), magnetoelastic ribbons(6)
10010 and neurophysiological systems such as the receptors in crickets(7) and
10011 crayfish(8). Although fundamentally important as a mechanism of
10012 coherent signal amplification, stochastic resonance has yet to be
10013 observed in nanoscale systems. Here we report the observation of
10014 stochastic resonance in bistable nanomechanical silicon oscillators.
10015 Our nanomechanical systems consist of beams that are clamped at each
10016 end and driven into transverse oscillation with the use of a
10017 radiofrequency source. Modulation of the source induces controllable
10018 switching of the beams between two stable, distinct states. We observe
10019 that the addition of white noise causes a marked amplification of the
10020 signal strength. Stochastic resonance in nanomechanical systems could
10021 have a function in the realization of controllable high-speed
10022 nanomechanical memory cells, and paves the way for exploring
10023 macroscopic quantum coherence and tunnelling.
10024 C1 Boston Univ, Dept Phys, Boston, MA 02215 USA.
10025 RP Mohanty, P, Boston Univ, Dept Phys, 590 Commonwealth Ave, Boston, MA
10026 02215 USA.
10027 EM mohanty@physics.bu.edu
10028 NR 23
10029 TC 1
10030 PU NATURE PUBLISHING GROUP
10031 PI LONDON
10032 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10033 SN 0028-0836
10034 J9 NATURE
10035 JI Nature
10036 PD OCT 13
10037 PY 2005
10038 VL 437
10039 IS 7061
10040 BP 995
10041 EP 998
10042 PG 4
10043 SC Multidisciplinary Sciences
10044 GA 973AU
10045 UT ISI:000232496100039
10046 ER
10047
10048 PT J
10049 AU Elvin, CM
10050 Carr, AG
10051 Huson, MG
10052 Maxwell, JM
10053 Pearson, RD
10054 Vuocolo, T
10055 Liyou, NE
10056 Wong, DCC
10057 Merritt, DJ
10058 Dixon, NE
10059 TI Synthesis and properties of crosslinked recombinant pro-resilin
10060 SO NATURE
10061 LA English
10062 DT Article
10063 ID ELASTIC PROTEINS; SOUND PRODUCTION; IDENTIFICATION; LINKING; TIMBAL
10064 AB Resilin is a member of a family of elastic proteins that includes
10065 elastin, as well as gluten, gliadin, abductin and spider silks. Resilin
10066 is found in specialized regions of the cuticle of most insects,
10067 providing low stiffness, high strain and efficient energy storage(1,2);
10068 it is best known for its roles in insect flight(3,4) and the remarkable
10069 jumping ability of fleas(5,6) and spittle bugs(7). Previously, the
10070 Drosophila melanogaster CG15920 gene was tentatively identified as one
10071 encoding a resilin-like protein(8,9) (pro-resilin). Here we report the
10072 cloning and expression of the first exon of the Drosophila CG15920 gene
10073 as a soluble protein in Escherichia coli. We show that this recombinant
10074 protein can be cast into a rubber-like biomaterial by rapid
10075 photochemical crosslinking. This observation validates the role of the
10076 putative elastic repeat motif in resilin function. The resilience (
10077 recovery after deformation) of crosslinked recombinant resilin was
10078 found to exceed that of unfilled synthetic polybutadiene, a high
10079 resilience rubber. We believe that our work will greatly facilitate
10080 structural investigations into the functional properties of resilin and
10081 shed light on more general aspects of the structure of elastomeric
10082 proteins. In addition, the ability to rapidly cast samples of this
10083 biomaterial may enable its use in situ for both industrial and
10084 biomedical applications.
10085 C1 CSIRO Livestock Ind, St Lucia, Qld 4072, Australia.
10086 CSIRO Text & Fibre Technol, Geelong, Vic 3216, Australia.
10087 Univ Queensland, Sch Integrat Biol, St Lucia, Qld 4072, Australia.
10088 Australian Natl Univ, Res Sch Chem, Canberra, ACT 0200, Australia.
10089 RP Elvin, CM, CSIRO Livestock Ind, Queensland Biosci Precinct, St Lucia,
10090 Qld 4072, Australia.
10091 EM chris.elvin@csiro.au
10092 NR 30
10093 TC 1
10094 PU NATURE PUBLISHING GROUP
10095 PI LONDON
10096 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10097 SN 0028-0836
10098 J9 NATURE
10099 JI Nature
10100 PD OCT 13
10101 PY 2005
10102 VL 437
10103 IS 7061
10104 BP 999
10105 EP 1002
10106 PG 4
10107 SC Multidisciplinary Sciences
10108 GA 973AU
10109 UT ISI:000232496100040
10110 ER
10111
10112 PT J
10113 AU Schefuss, E
10114 Schouten, S
10115 Schneider, RR
10116 TI Climatic controls on central African hydrology during the past 20,000
10117 years
10118 SO NATURE
10119 LA English
10120 DT Article
10121 ID SEA-SURFACE TEMPERATURES; RAINFALL VARIABILITY; LIPID BIOSYNTHESIS;
10122 SOUTH-ATLANTIC; CIRCULATION; CALIBRATION; ISOTOPES; TROPICS;
10123 PRECIPITATION; TERRESTRIAL
10124 AB Past hydrological changes in Africa have been linked to various
10125 climatic processes, depending on region and timescale. Long-term
10126 precipitation changes in the regions of northern and southern Africa
10127 influenced by the monsoons are thought to have been governed by
10128 precessional variations in summer insolation(1,2). Conversely,
10129 short-term precipitation changes in the northern African tropics have
10130 been linked to North Atlantic sea surface temperature anomalies,
10131 affecting the northward extension of the Intertropical Convergence Zone
10132 and its associated rainbelt(3,4). Our knowledge of large-scale
10133 hydrological changes in equatorial Africa and their forcing factors is,
10134 however, limited(5). Here we analyse the isotopic composition of
10135 terrigenous plant lipids, extracted from a marine sediment core close
10136 to the Congo River mouth, in order to reconstruct past central African
10137 rainfall variations and compare this record to sea surface temperature
10138 changes in the South Atlantic Ocean. We find that central African
10139 precipitation during the past 20,000 years was mainly controlled by the
10140 difference in sea surface temperatures between the tropics and
10141 subtropics of the South Atlantic Ocean, whereas we find no evidence
10142 that changes in the position of the Intertropical Convergence Zone had
10143 a significant influence on the overall moisture availability in central
10144 Africa. We conclude that changes in ocean circulation, and hence sea
10145 surface temperature patterns, were important in modulating atmospheric
10146 moisture transport onto the central African continent.
10147 C1 Univ Bremen, DFG Res Ctr Ocean Margins, D-28359 Bremen, Germany.
10148 Royal Netherlands Inst Sea Res, NL-1790 AB Den Burg, Texel, Netherlands.
10149 Univ Kiel, Inst Geowissensch, D-24118 Kiel, Germany.
10150 RP Schefuss, E, Woods Hole Oceanog Inst, Dept Marine Chem & Geochem, Woods
10151 Hole, MA 02543 USA.
10152 EM eschefuss@whoi.edu
10153 NR 30
10154 TC 0
10155 PU NATURE PUBLISHING GROUP
10156 PI LONDON
10157 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10158 SN 0028-0836
10159 J9 NATURE
10160 JI Nature
10161 PD OCT 13
10162 PY 2005
10163 VL 437
10164 IS 7061
10165 BP 1003
10166 EP 1006
10167 PG 4
10168 SC Multidisciplinary Sciences
10169 GA 973AU
10170 UT ISI:000232496100041
10171 ER
10172
10173 PT J
10174 AU Makovicky, PJ
10175 Apesteguia, S
10176 Agnolin, FL
10177 TI The earliest dromaeosaurid theropod from South America
10178 SO NATURE
10179 LA English
10180 DT Article
10181 ID PATAGONIA; DINOSAUR; BIRDS; CHINA
10182 AB The evolutionary history of Maniraptora, the clade of carnivorous
10183 dinosaurs that includes birds and the sickle-clawed Dromaeosauridae,
10184 has hitherto been largely restricted to Late Jurassic and Cretaceous
10185 deposits on northern continents. The stunning Early Cretaceous
10186 diversity of maniraptorans from Liaoning, China(1-3), coupled with a
10187 longevity implied by derived Late Jurassic forms such as Archaeopteryx,
10188 pushes the origins of maniraptoran lineages back to Pangaean times and
10189 engenders the possibility that such lineages existed in Gondwana. A few
10190 intriguing, but incomplete, maniraptoran specimens have been reported
10191 from South America(4-8), Africa(9) and Madagascar(10). Their affinities
10192 remain contested(11-13), however, and they have been interpreted as
10193 biogeographic anomalies relative to other faunal components of these
10194 land-masses. Here we describe a near-complete, small dromaeosaurid that
10195 is both the most complete and the earliest member of the Maniraptora
10196 from South America, and which provides new evidence for a unique
10197 Gondwanan lineage of Dromaeosauridae with an origin predating the
10198 separation between northern and southern landmasses.
10199 C1 Field Museum Nat Hist, Dept Geol, Chicago, IL 60605 USA.
10200 Museo Argentino Ciencias Nat Bernardino Rivadavia, Secc Paleontol Vertebrados, RA-1405 Buenos Aires, DF, Argentina.
10201 Museo Argentino Ciencias Nat Bernardino Rivadavia, Lab Anat Comparada, RA-1405 Buenos Aires, DF, Argentina.
10202 Univ Maimonides, CAECNA, Fdn Hist Nat Felix de Azara, RA-1405 Buenos Aires, DF, Argentina.
10203 RP Makovicky, PJ, Field Museum Nat Hist, Dept Geol, 1400 S Lake Shore Dr,
10204 Chicago, IL 60605 USA.
10205 EM paleoninja@yahoo.com.ar
10206 NR 30
10207 TC 0
10208 PU NATURE PUBLISHING GROUP
10209 PI LONDON
10210 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10211 SN 0028-0836
10212 J9 NATURE
10213 JI Nature
10214 PD OCT 13
10215 PY 2005
10216 VL 437
10217 IS 7061
10218 BP 1007
10219 EP 1011
10220 PG 5
10221 SC Multidisciplinary Sciences
10222 GA 973AU
10223 UT ISI:000232496100042
10224 ER
10225
10226 PT J
10227 AU Morwood, MJ
10228 Brown, P
10229 Jatmiko
10230 Sutikna, T
10231 Saptomo, EW
10232 Westaway, KE
10233 Due, RA
10234 Roberts, RG
10235 Maeda, T
10236 Wasisto, S
10237 Djubiantono, T
10238 TI Further evidence for small-bodied hominins from the Late Pleistocene of
10239 Flores, Indonesia
10240 SO NATURE
10241 LA English
10242 DT Article
10243 ID DENTAL MORPHOLOGY; HADAR FORMATION; AL 288-1; BRAIN; HOMO; ETHIOPIA;
10244 SKELETON; STATURE; DMANISI; GEORGIA
10245 AB Homo floresiensis was recovered from Late Pleistocene deposits on the
10246 island of Flores in eastern Indonesia, but has the stature, limb
10247 proportions and endocranial volume of African Pliocene
10248 Australopithecus(1). The holotype of the species (LB1), excavated in
10249 2003 from Liang Bua, consisted of a partial skeleton minus the arms.
10250 Here we describe additional H. floresiensis remains excavated from the
10251 cave in 2004. These include armbones belonging to the holotype
10252 skeleton, a second adult mandible, and postcranial material from other
10253 individuals. We can now reconstruct the body proportions of H.
10254 floresiensis with some certainty. The finds further demonstrate that
10255 LB1 is not just an aberrant or pathological individual, but is
10256 representative of a long-term population that was present during the
10257 interval 95 - 74 to 12 thousand years ago. The excavation also yielded
10258 more evidence for the depositional history of the cave and for the
10259 behavioural capabilities of H. floresiensis, including the butchery of
10260 Stegodon and use of fire.
10261 C1 Univ New England, Sch Human & Environm Studies, Armidale, NSW 2351, Australia.
10262 Indonesian Ctr Archaeol, Jakarta 12001, Indonesia.
10263 Univ Wollongong, Sch Earth & Environm Sci, GeoQuEST Res Ctr, Wollongong, NSW 2522, Australia.
10264 RP Morwood, MJ, Univ New England, Sch Human & Environm Studies, Armidale,
10265 NSW 2351, Australia.
10266 EM mmorwood@pobox.une.edu.au
10267 pbrown3@pobox.une.edu.au
10268 NR 29
10269 TC 1
10270 PU NATURE PUBLISHING GROUP
10271 PI LONDON
10272 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10273 SN 0028-0836
10274 J9 NATURE
10275 JI Nature
10276 PD OCT 13
10277 PY 2005
10278 VL 437
10279 IS 7061
10280 BP 1012
10281 EP 1017
10282 PG 6
10283 SC Multidisciplinary Sciences
10284 GA 973AU
10285 UT ISI:000232496100043
10286 ER
10287
10288 PT J
10289 AU Corbit, KC
10290 Aanstad, P
10291 Singla, V
10292 Norman, AR
10293 Stainier, DYR
10294 Reiter, JF
10295 TI Vertebrate Smoothened functions at the primary cilium
10296 SO NATURE
10297 LA English
10298 DT Article
10299 ID HEDGEHOG SIGNAL-TRANSDUCTION; INTRAFLAGELLAR TRANSPORT PROTEINS;
10300 OLFACTORY CILIA; NEURONAL CILIA; LOCALIZATION; DROSOPHILA;
10301 BETA-ARRESTIN-2; CYCLOPAMINE; INHIBITION; RECEPTORS
10302 AB The unanticipated involvement of several intraflagellar transport
10303 proteins in the mammalian Hedgehog (Hh) pathway has hinted at a
10304 functional connection between cilia and Hh signal transduction(1,2).
10305 Here we show that mammalian Smoothened (Smo), a seven-transmembrane
10306 protein essential for Hh signalling(3), is expressed on the primary
10307 cilium. This ciliary expression is regulated by Hh pathway activity;
10308 Sonic hedgehog or activating mutations in Smo promote ciliary
10309 localization, whereas the Smo antagonist cyclopamine inhibits ciliary
10310 localization. The translocation of Smo to primary cilia depends upon a
10311 conserved hydrophobic and basic residue sequence homologous to a domain
10312 previously shown to be required for the ciliary localization of
10313 seven-transmembrane proteins in Caenorhabditis elegans(4). Mutation of
10314 this domain not only prevents ciliary localization but also eliminates
10315 Smo activity both in cultured cells and in zebrafish embryos. Thus,
10316 Hh-dependent translocation to cilia is essential for Smo activity,
10317 suggesting that Smo acts at the primary cilium.
10318 C1 Univ Calif San Francisco, Dev & Stem Cell Biol Program, San Francisco, CA 94143 USA.
10319 Univ Calif San Francisco, Ctr Diabet, San Francisco, CA 94143 USA.
10320 Univ Calif San Francisco, Dept Biochem & Biophys, San Francisco, CA 94143 USA.
10321 RP Reiter, JF, Univ Calif San Francisco, Dev & Stem Cell Biol Program, San
10322 Francisco, CA 94143 USA.
10323 EM jreiter@diabetes.ucsf.edu
10324 NR 29
10325 TC 0
10326 PU NATURE PUBLISHING GROUP
10327 PI LONDON
10328 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10329 SN 0028-0836
10330 J9 NATURE
10331 JI Nature
10332 PD OCT 13
10333 PY 2005
10334 VL 437
10335 IS 7061
10336 BP 1018
10337 EP 1021
10338 PG 4
10339 SC Multidisciplinary Sciences
10340 GA 973AU
10341 UT ISI:000232496100044
10342 ER
10343
10344 PT J
10345 AU Grigg, SP
10346 Canales, C
10347 Hay, A
10348 Tsiantis, M
10349 TI SERRATE coordinates shoot meristem function and leaf axial patterning
10350 in Arabidopsis
10351 SO NATURE
10352 LA English
10353 DT Article
10354 ID CLASS IIIHD-ZIP; INSERTIONAL MUTAGENESIS; GENE; ORGANOGENESIS;
10355 PHABULOSA; THALIANA; PROTEINS; POLARITY; GENOME; MEMBER
10356 AB Leaves of flowering plants are determinate organs produced by
10357 pluripotent structures termed shoot apical meristems. Once specified,
10358 leaves differentiate an adaxial ( upper) side specialized for light
10359 capture, and an abaxial ( lower) side specialized for gas exchange. A
10360 functional relationship between meristem activity and the
10361 differentiation of adaxial leaf fate has been recognized for over fifty
10362 years, but the molecular basis of this interaction is unclear. In
10363 Arabidopsis thaliana, activity of the class I KNOX (KNOTTED1-like
10364 homeobox) genes SHOOTMERISTEMLESS (STM) and BREVIPEDICELLUS ( BP) is
10365 required for meristem function but excluded from leaves(1-3), whereas
10366 members of the HD-Zip III ( class III homeodomain leucine zipper)
10367 protein family function to promote both meristem activity and adaxial
10368 leaf fate(4-6). Here we show that the zinc-finger protein SERRATE acts
10369 in a microRNA ( miRNA) gene-silencing pathway to regulate expression of
10370 the HD-Zip III gene PHABULOSA (PHB) while also limiting the competence
10371 of shoot tissue to respond to KNOX expression. Thus, SERRATE acts to
10372 coordinately regulate meristem activity and leaf axial patterning.
10373 C1 Univ Oxford, Dept Plant Sci, Oxford OX1 3RB, England.
10374 RP Tsiantis, M, Univ Oxford, Dept Plant Sci, S Parks Rd, Oxford OX1 3RB,
10375 England.
10376 EM miltos.tsiantis@plants.ox.ac.uk
10377 NR 22
10378 TC 0
10379 PU NATURE PUBLISHING GROUP
10380 PI LONDON
10381 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10382 SN 0028-0836
10383 J9 NATURE
10384 JI Nature
10385 PD OCT 13
10386 PY 2005
10387 VL 437
10388 IS 7061
10389 BP 1022
10390 EP 1026
10391 PG 5
10392 SC Multidisciplinary Sciences
10393 GA 973AU
10394 UT ISI:000232496100045
10395 ER
10396
10397 PT J
10398 AU Liu, QS
10399 Pu, L
10400 Poo, MM
10401 TI Repeated cocaine exposure in vivo facilitates LTP induction in midbrain
10402 dopamine neurons
10403 SO NATURE
10404 LA English
10405 DT Article
10406 ID VENTRAL TEGMENTAL AREA; LONG-TERM POTENTIATION; GAMMA-VINYL GABA;
10407 FEEDFORWARD INHIBITION; SYNAPTIC PLASTICITY; VISUAL-CORTEX; ADDICTION;
10408 RAT; DRUGS; ABUSE
10409 AB Drugs of abuse are known to cause persistent modification of neural
10410 circuits, leading to addictive behaviours(1-5). Changes in synaptic
10411 plasticity in dopamine neurons of the ventral tegmental area (VTA) may
10412 contribute to circuit modification induced by many drugs of abuse,
10413 including cocaine(6-13). Here we report that, following repeated
10414 exposure to cocaine in vivo, excitatory synapses to rat VTA dopamine
10415 neurons become highly susceptible to the induction of long-term
10416 potentiation (LTP) by correlated pre- and postsynaptic activity. This
10417 facilitated LTP induction is caused by cocaine-induced reduction of
10418 GABA(A) (gamma-aminobutyric acid) receptor- mediated inhibition of
10419 these dopamine neurons. In midbrain slices from rats treated with
10420 saline or a single dose of cocaine, LTP could not be induced in VTA
10421 dopamine neurons unless GABA-mediated inhibition was reduced by
10422 bicuculline or picrotoxin. However, LTP became readily inducible in
10423 slices from rats treated repeatedly with cocaine; this LTP induction
10424 was prevented by enhancing GABA-mediated inhibition using diazepam.
10425 Furthermore, repeated cocaine exposure reduced the amplitude of
10426 GABA-mediated synaptic currents and increased the probability of spike
10427 initiation in VTA dopamine neurons. This cocaine-induced enhancement of
10428 synaptic plasticity in the VTA may be important for the formation of
10429 drug-associated memory.
10430 C1 Univ Calif Berkeley, Helen Wills Neurosci Inst, Dept Mol & Cell Biol, Div Neurobiol, Berkeley, CA 94720 USA.
10431 RP Poo, MM, Univ Calif Berkeley, Helen Wills Neurosci Inst, Dept Mol &
10432 Cell Biol, Div Neurobiol, Berkeley, CA 94720 USA.
10433 EM qsliu@berkeley.edu
10434 mpoo@berkeley.edu
10435 NR 30
10436 TC 0
10437 PU NATURE PUBLISHING GROUP
10438 PI LONDON
10439 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10440 SN 0028-0836
10441 J9 NATURE
10442 JI Nature
10443 PD OCT 13
10444 PY 2005
10445 VL 437
10446 IS 7061
10447 BP 1027
10448 EP 1031
10449 PG 5
10450 SC Multidisciplinary Sciences
10451 GA 973AU
10452 UT ISI:000232496100046
10453 ER
10454
10455 PT J
10456 AU Calvano, SE
10457 Xiao, WZ
10458 Richards, DR
10459 Felciano, RM
10460 Baker, HV
10461 Cho, RJ
10462 Chen, RO
10463 Brownstein, BH
10464 Cobb, JP
10465 Tschoeke, SK
10466 Miller-Graziano, C
10467 Moldawer, LL
10468 Mindrinos, MN
10469 Davis, RW
10470 Tompkins, RG
10471 Lowry, SF
10472 CA Inflammation Host Response Injury
10473 TI A network-based analysis of systemic inflammation in humans
10474 SO NATURE
10475 LA English
10476 DT Article
10477 ID MITOCHONDRIAL PERMEABILITY TRANSITION; MOLECULAR CLASSIFICATION;
10478 ENDOTOXIN TOLERANCE; CELL-DEATH; EXPRESSION; DISEASE; DYSFUNCTION;
10479 MICROARRAYS; PREDICTION; MECHANISM
10480 AB Oligonucleotide and complementary DNA microarrays are being used to
10481 subclassify histologically similar tumours, monitor disease progress,
10482 and individualize treatment regimens(1-5). However, extracting new
10483 biological insight from high-throughput genomic studies of human
10484 diseases is a challenge, limited by difficulties in recognizing and
10485 evaluating relevant biological processes from huge quantities of
10486 experimental data. Here we present a structured network knowledge-base
10487 approach to analyse genome-wide transcriptional responses in the
10488 context of known functional interrelationships among proteins, small
10489 molecules and phenotypes. This approach was used to analyse changes in
10490 blood leukocyte gene expression patterns in human subjects receiving an
10491 inflammatory stimulus ( bacterial endotoxin). We explore the known
10492 genome-wide interaction network to identify significant functional
10493 modules perturbed in response to this stimulus. Our analysis reveals
10494 that the human blood leukocyte response to acute systemic inflammation
10495 includes the transient dysregulation of leukocyte bioenergetics and
10496 modulation of translational machinery. These findings provide insight
10497 into the regulation of global leukocyte activities as they relate to
10498 innate immune system tolerance and increased susceptibility to
10499 infection in humans.
10500 C1 Stanford Genome Technol Ctr, Palo Alto, CA 94304 USA.
10501 Univ Med & Dent New Jersey, Robert Wood Johnson Med Sch, Dept Surg, New Brunswick, NJ 08903 USA.
10502 Ingenuity Syst Inc, Mountain View, CA 94043 USA.
10503 Univ Florida, Coll Med, Dept Mol Genet & Microbiol, Gainesville, FL 32610 USA.
10504 Univ Florida, Coll Med, Dept Surg, Gainesville, FL 32610 USA.
10505 Washington Univ, Dept Surg, St Louis, MO 63110 USA.
10506 Univ Rochester, Sch Med, Dept Surg, Rochester, NY 14642 USA.
10507 Harvard Univ, Sch Med, Massachusetts Gen Hosp, Dept Surg, Boston, MA 02114 USA.
10508 RP Davis, RW, Stanford Genome Technol Ctr, Palo Alto, CA 94304 USA.
10509 EM dbowe@stanford.edu
10510 NR 24
10511 TC 0
10512 PU NATURE PUBLISHING GROUP
10513 PI LONDON
10514 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10515 SN 0028-0836
10516 J9 NATURE
10517 JI Nature
10518 PD OCT 13
10519 PY 2005
10520 VL 437
10521 IS 7061
10522 BP 1032
10523 EP 1037
10524 PG 6
10525 SC Multidisciplinary Sciences
10526 GA 973AU
10527 UT ISI:000232496100047
10528 ER
10529
10530 PT J
10531 AU Shi, QH
10532 King, RW
10533 TI Chromosome nondisjunction yields tetraploid rather than aneuploid cells
10534 in human cell lines
10535 SO NATURE
10536 LA English
10537 DT Article
10538 ID MITOTIC CHECKPOINT; CYCLE PROGRESSION; MAMMALIAN-CELLS; INSTABILITY;
10539 CANCER; CYTOKINESIS; MECHANISM; DIFFERENTIATION; INACTIVATION;
10540 SEGREGATION
10541 AB Although mutations in cell cycle regulators or spindle proteins can
10542 perturb chromosome segregation(1-7), the causes and consequences of
10543 spontaneous mitotic chromosome nondisjunction in human cells are not
10544 well understood. It has been assumed that nondisjunction of a
10545 chromosome during mitosis will yield two aneuploid daughter cells. Here
10546 we show that chromosome nondisjunction is tightly coupled to regulation
10547 of cytokinesis in human cell lines, such that nondisjunction results in
10548 the formation of tetraploid rather than aneuploid cells. We observed
10549 that spontaneously arising binucleated cells exhibited chromosome
10550 mis-segregation rates up to 166-fold higher than the overall mitotic
10551 population. Long-term imaging experiments indicated that most
10552 binucleated cells arose through a bipolar mitosis followed by
10553 regression of the cleavage furrow hours later. Nondisjunction occurred
10554 with high frequency in cells that became binucleated by furrow
10555 regression, but not in cells that completed cytokinesis to form two
10556 mononucleated cells. Our findings indicate that nondisjunction does not
10557 directly yield aneuploid cells, but rather tetraploid cells that may
10558 subsequently become aneuploid through further division. The coupling of
10559 spontaneous segregation errors to furrow regression provides a
10560 potential explanation for the prevalence of hyperdiploid chromosome
10561 number and centrosome amplification observed in many cancers(8,9).
10562 C1 Harvard Univ, Sch Med, Dept Cell Biol, Boston, MA 02115 USA.
10563 RP King, RW, Harvard Univ, Sch Med, Dept Cell Biol, 240 Longwood Ave,
10564 Boston, MA 02115 USA.
10565 EM randy_king@hms.harvard.edu
10566 NR 30
10567 TC 1
10568 PU NATURE PUBLISHING GROUP
10569 PI LONDON
10570 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10571 SN 0028-0836
10572 J9 NATURE
10573 JI Nature
10574 PD OCT 13
10575 PY 2005
10576 VL 437
10577 IS 7061
10578 BP 1038
10579 EP 1042
10580 PG 5
10581 SC Multidisciplinary Sciences
10582 GA 973AU
10583 UT ISI:000232496100048
10584 ER
10585
10586 PT J
10587 AU Fujiwara, T
10588 Bandi, M
10589 Nitta, M
10590 Ivanova, EV
10591 Bronson, RT
10592 Pellman, D
10593 TI Cytokinesis failure generating tetraploids promotes tumorigenesis in
10594 p53-null cells
10595 SO NATURE
10596 LA English
10597 DT Article
10598 ID MAMMALIAN-CELLS; CHROMOSOME INSTABILITY; TELOMERE DYSFUNCTION; CANCER
10599 PROGRESSION; GENOME INSTABILITY; P53; MODEL; TRANSLOCATIONS;
10600 SEGREGATION; SUPPRESSOR
10601 AB A long-standing hypothesis on tumorigenesis is that cell division
10602 failure, generating genetically unstable tetraploid cells, facilitates
10603 the development of aneuploid malignancies(1-3). Here we test this idea
10604 by transiently blocking cytokinesis in p53-null (p53(-/-)) mouse
10605 mammary epithelial cells (MMECs), enabling the isolation of diploid and
10606 tetraploid cultures. The tetraploid cells had an increase in the
10607 frequency of whole-chromosome mis-segregation and chromosomal
10608 rearrangements. Only the tetraploid cells were transformed in vitro
10609 after exposure to a carcinogen. Furthermore, in the absence of
10610 carcinogen, only the tetraploid cells gave rise to malignant mammary
10611 epithelial cancers when transplanted subcutaneously into nude mice.
10612 These tumours all contained numerous non-reciprocal translocations and
10613 an 8-30-fold amplification of a chromosomal region containing a cluster
10614 of matrix metalloproteinase (MMP) genes. MMP overexpression is linked
10615 to mammary tumours in humans and animal models(4). Thus, tetraploidy
10616 enhances the frequency of chromosomal alterations and promotes tumour
10617 development in p53(-/-) MMECs.
10618 C1 Harvard Univ, Sch Med, Dana Farber Canc Inst, Dept Pediat Oncol, Boston, MA 02115 USA.
10619 Harvard Univ, Sch Med, Dana Farber Canc Inst, Dept Med Oncol, Boston, MA 02115 USA.
10620 Harvard Univ, Sch Med, Childrens Hosp, Boston, MA 02115 USA.
10621 Tufts Univ, Sch Vet, Dept Biomed Sci, North Grafton, MA 01536 USA.
10622 RP Pellman, D, Harvard Univ, Sch Med, Dana Farber Canc Inst, Dept Pediat
10623 Oncol, 44 Binney St, Boston, MA 02115 USA.
10624 EM david_pellman@dfci.harvard.edu
10625 NR 30
10626 TC 1
10627 PU NATURE PUBLISHING GROUP
10628 PI LONDON
10629 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10630 SN 0028-0836
10631 J9 NATURE
10632 JI Nature
10633 PD OCT 13
10634 PY 2005
10635 VL 437
10636 IS 7061
10637 BP 1043
10638 EP 1047
10639 PG 5
10640 SC Multidisciplinary Sciences
10641 GA 973AU
10642 UT ISI:000232496100049
10643 ER
10644
10645 PT J
10646 AU Rauh, NR
10647 Schmidt, A
10648 Bormann, J
10649 Nigg, EA
10650 Mayer, TU
10651 TI Calcium triggers exit from meiosis II by targeting the APC/C inhibitor
10652 XErp1 for degradation
10653 SO NATURE
10654 LA English
10655 DT Article
10656 ID CYTOSTATIC FACTOR ARREST; XENOPUS EGG EXTRACTS; PROTEIN KINASE-II;
10657 METAPHASE; DESTRUCTION; UBIQUITIN; ANAPHASE; COMPLEX; FERTILIZATION;
10658 BINDING
10659 AB Vertebrate eggs awaiting fertilization are arrested at metaphase of
10660 meiosis II by a biochemical activity termed cytostatic factor
10661 (CSF)(1,2). This activity inhibits the anaphase-promoting complex/
10662 cyclosome (APC/C), a ubiquitin ligase that triggers anaphase onset and
10663 mitotic/meiotic exit by targeting securin and M-phase cyclins for
10664 destruction(3,4,5). On fertilization a transient rise in free
10665 intracellular calcium(6) causes release from CSF arrest and thus APC/C
10666 activation. Although it has previously been shown that calcium induces
10667 the release of APC/C from CSF inhibition through calmodulin-dependent
10668 protein kinase II ( CaMKII)(7,8), the relevant substrates of this
10669 kinase have not been identified. Recently, we characterized XErp1
10670 (Emi2), an inhibitor of the APC/C and key component of CSF activity in
10671 Xenopus egg extract(9). Here we show that calcium-activated CaMKII
10672 triggers exit from meiosis II by sensitizing the APC/C inhibitor XErp1
10673 for polo-like kinase 1 (Plx1)-dependent degradation. Phosphorylation of
10674 XErp1 by CaMKII leads to the recruitment of Plx1 that in turn triggers
10675 the destruction of XErp1 by phosphorylating a site known to serve as a
10676 phosphorylation-dependent degradation signal. These results provide a
10677 molecular explanation for how the fertilization-induced calcium
10678 increase triggers exit from meiosis II.
10679 C1 Max Planck Inst Biochem, Independent Res Grp, D-82152 Martinsried, Germany.
10680 Max Planck Inst Biochem, Dept Cell Biol, D-82152 Martinsried, Germany.
10681 RP Mayer, TU, Max Planck Inst Biochem, Independent Res Grp, Klopferspitz
10682 18, D-82152 Martinsried, Germany.
10683 EM mayer@biochem.mpg.de
10684 NR 22
10685 TC 1
10686 PU NATURE PUBLISHING GROUP
10687 PI LONDON
10688 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10689 SN 0028-0836
10690 J9 NATURE
10691 JI Nature
10692 PD OCT 13
10693 PY 2005
10694 VL 437
10695 IS 7061
10696 BP 1048
10697 EP 1052
10698 PG 5
10699 SC Multidisciplinary Sciences
10700 GA 973AU
10701 UT ISI:000232496100050
10702 ER
10703
10704 PT J
10705 AU Religa, TL
10706 Markson, JS
10707 Mayor, U
10708 Freund, SMV
10709 Fersht, AR
10710 TI Solution structure of a protein denatured state and folding intermediate
10711 SO NATURE
10712 LA English
10713 DT Article
10714 ID LONG-RANGE STRUCTURE; PARAMAGNETIC RELAXATION; STAPHYLOCOCCAL NUCLEASE;
10715 ENGRAILED HOMEODOMAIN; BACKBONE DYNAMICS; SH3 DOMAIN; NMR; PATHWAY
10716 AB The most controversial area in protein folding concerns its earliest
10717 stages. Questions such as whether there are genuine folding
10718 intermediates, and whether the events at the earliest stages are just
10719 rearrangements of the denatured state(1) or progress from populated
10720 transition states(2), remain unresolved. The problem is that there is a
10721 lack of experimental high-resolution structural information about early
10722 folding intermediates and denatured states under conditions that favour
10723 folding because competent states spontaneously fold rapidly. Here we
10724 have solved directly the solution structure of a true denatured state
10725 by nuclear magnetic resonance under conditions that would normally
10726 favour folding, and directly studied its equilibrium and kinetic
10727 behaviour. We engineered a mutant of Drosophila melanogaster Engrailed
10728 homeodomain that folds and unfolds reversibly just by changing ionic
10729 strength. At high ionic strength, the mutant L16A is an ultra-fast
10730 folding native protein, just like the wild-type protein; however, at
10731 physiological ionic strength it is denatured. The denatured state is a
10732 well-ordered folding intermediate, poised to fold by docking helices
10733 and breaking some non-native interactions. It unfolds relatively
10734 progressively with increasingly denaturing conditions, and so
10735 superficially resembles a denatured state with properties that vary
10736 with conditions. Such ill-defined unfolding is a common feature of
10737 early folding intermediate states and accounts for why there are so
10738 many controversies about intermediates versus compact denatured states
10739 in protein folding.
10740 C1 MRC Ctr, Ctr Prot Engn, Cambridge CB2 2QH, England.
10741 Univ Cambridge, MRC Ctr, Chem Labs, Cambridge CB2 2QH, England.
10742 RP Fersht, AR, MRC Ctr, Ctr Prot Engn, Hills Rd, Cambridge CB2 2QH,
10743 England.
10744 EM arf25@cam.ac.uk
10745 NR 24
10746 TC 0
10747 PU NATURE PUBLISHING GROUP
10748 PI LONDON
10749 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10750 SN 0028-0836
10751 J9 NATURE
10752 JI Nature
10753 PD OCT 13
10754 PY 2005
10755 VL 437
10756 IS 7061
10757 BP 1053
10758 EP 1056
10759 PG 4
10760 SC Multidisciplinary Sciences
10761 GA 973AU
10762 UT ISI:000232496100051
10763 ER
10764
10765 PT J
10766 AU Zhang, JZ
10767 Zhao, YS
10768 TI Formation of zirconium metallic glass (vol 430, pg 332, 2004)
10769 SO NATURE
10770 LA English
10771 DT Correction
10772 NR 1
10773 TC 0
10774 PU NATURE PUBLISHING GROUP
10775 PI LONDON
10776 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10777 SN 0028-0836
10778 J9 NATURE
10779 JI Nature
10780 PD OCT 13
10781 PY 2005
10782 VL 437
10783 IS 7061
10784 BP 1057
10785 EP 1057
10786 PG 1
10787 SC Multidisciplinary Sciences
10788 GA 973AU
10789 UT ISI:000232496100052
10790 ER
10791
10792 PT J
10793 AU Mclaughlin, AC
10794 Sher, F
10795 Attfield, JP
10796 TI Negative lattice expansion from the
10797 superconductivity-antiferromagnetism crossover in ruthenium copper
10798 oxides (vol 436, pg 829, 2005)
10799 SO NATURE
10800 LA English
10801 DT Correction
10802 NR 1
10803 TC 0
10804 PU NATURE PUBLISHING GROUP
10805 PI LONDON
10806 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10807 SN 0028-0836
10808 J9 NATURE
10809 JI Nature
10810 PD OCT 13
10811 PY 2005
10812 VL 437
10813 IS 7061
10814 BP 1057
10815 EP 1057
10816 PG 1
10817 SC Multidisciplinary Sciences
10818 GA 973AU
10819 UT ISI:000232496100053
10820 ER
10821
10822 PT J
10823 AU Schramke, V
10824 Sheedy, DM
10825 Denli, AM
10826 Bonila, C
10827 Ekwall, K
10828 Hannon, GJ
10829 Allshire, RC
10830 TI RNA-interference-directed chromatin modification coupled to RNA
10831 polymerase II transcription (vol 435, pg 1275, 2005)
10832 SO NATURE
10833 LA English
10834 DT Correction
10835 NR 3
10836 TC 0
10837 PU NATURE PUBLISHING GROUP
10838 PI LONDON
10839 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10840 SN 0028-0836
10841 J9 NATURE
10842 JI Nature
10843 PD OCT 13
10844 PY 2005
10845 VL 437
10846 IS 7061
10847 BP 1057
10848 EP 1057
10849 PG 1
10850 SC Multidisciplinary Sciences
10851 GA 973AU
10852 UT ISI:000232496100054
10853 ER
10854
10855 PT J
10856 AU Buckell, TS
10857 TI Toy planes - Time to leave.
10858 SO NATURE
10859 LA English
10860 DT Editorial Material
10861 NR 0
10862 TC 0
10863 PU NATURE PUBLISHING GROUP
10864 PI LONDON
10865 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10866 SN 0028-0836
10867 J9 NATURE
10868 JI Nature
10869 PD OCT 13
10870 PY 2005
10871 VL 437
10872 IS 7061
10873 BP 1064
10874 EP 1064
10875 PG 1
10876 SC Multidisciplinary Sciences
10877 GA 973AU
10878 UT ISI:000232496100055
10879 ER
10880
10881 PT J
10882 AU [Anon]
10883 TI Reaching for the Moon
10884 SO NATURE
10885 LA English
10886 DT Editorial Material
10887 NR 0
10888 TC 0
10889 PU NATURE PUBLISHING GROUP
10890 PI LONDON
10891 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10892 SN 0028-0836
10893 J9 NATURE
10894 JI Nature
10895 PD OCT 6
10896 PY 2005
10897 VL 437
10898 IS 7060
10899 BP 789
10900 EP 789
10901 PG 1
10902 SC Multidisciplinary Sciences
10903 GA 970VB
10904 UT ISI:000232338600001
10905 ER
10906
10907 PT J
10908 AU [Anon]
10909 TI In need of rehab
10910 SO NATURE
10911 LA English
10912 DT Editorial Material
10913 NR 1
10914 TC 0
10915 PU NATURE PUBLISHING GROUP
10916 PI LONDON
10917 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10918 SN 0028-0836
10919 J9 NATURE
10920 JI Nature
10921 PD OCT 6
10922 PY 2005
10923 VL 437
10924 IS 7060
10925 BP 789
10926 EP 790
10927 PG 2
10928 SC Multidisciplinary Sciences
10929 GA 970VB
10930 UT ISI:000232338600002
10931 ER
10932
10933 PT J
10934 AU [Anon]
10935 TI Welcome Nature Physics
10936 SO NATURE
10937 LA English
10938 DT Editorial Material
10939 NR 0
10940 TC 0
10941 PU NATURE PUBLISHING GROUP
10942 PI LONDON
10943 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10944 SN 0028-0836
10945 J9 NATURE
10946 JI Nature
10947 PD OCT 6
10948 PY 2005
10949 VL 437
10950 IS 7060
10951 BP 790
10952 EP 790
10953 PG 1
10954 SC Multidisciplinary Sciences
10955 GA 970VB
10956 UT ISI:000232338600003
10957 ER
10958
10959 PT J
10960 AU von Bubnoff, A
10961 TI The 1918 flu virus is resurrected
10962 SO NATURE
10963 LA English
10964 DT News Item
10965 AB The 1918 human influenza virus has been resurrected by scientists
10966 investigating the virus, how it arose and why it was so deadly. However
10967 many are concernedthat the dangers of resurrecting the virus are too
10968 great and the publication of the full genome sequence gives any rogue
10969 nation or bioterrorist group all the information they need to make
10970 their own version of the virus. Researchers will benefit from this
10971 information by being able to spot the next pandemic strain and design
10972 appropriate drugs and vaccines in time. Further research will involve
10973 testing reconstructed viruses with and without certain mutations to see
10974 which are the most important for virulence.
10975 NR 1
10976 TC 2
10977 PU NATURE PUBLISHING GROUP
10978 PI LONDON
10979 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
10980 SN 0028-0836
10981 J9 NATURE
10982 JI Nature
10983 PD OCT 6
10984 PY 2005
10985 VL 437
10986 IS 7060
10987 BP 794
10988 EP 795
10989 PG 2
10990 SC Multidisciplinary Sciences
10991 GA 970VB
10992 UT ISI:000232338600004
10993 ER
10994
10995 PT J
10996 AU Cyranoski, D
10997 TI Japan jumps towards personalized medicine
10998 SO NATURE
10999 LA English
11000 DT News Item
11001 AB Japanese scientists claim they have developed a desktop machine that
11002 will allow doctors to assess patients DNA from a single drop of blood
11003 and so tailor treatment to an individuals genes. The machine will first
11004 be tested on patients being prescribed the antibody irinotecan or the
11005 anticoagulant warfarin. Howeversuch personalized medicine is still far
11006 from being available and the machine may be more useful in research.
11007 NR 0
11008 TC 1
11009 PU NATURE PUBLISHING GROUP
11010 PI LONDON
11011 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11012 SN 0028-0836
11013 J9 NATURE
11014 JI Nature
11015 PD OCT 6
11016 PY 2005
11017 VL 437
11018 IS 7060
11019 BP 796
11020 EP 796
11021 PG 1
11022 SC Multidisciplinary Sciences
11023 GA 970VB
11024 UT ISI:000232338600005
11025 ER
11026
11027 PT J
11028 AU Witze, A
11029 TI Q marks the spot as ancient sculptures yield their origins
11030 SO NATURE
11031 LA English
11032 DT News Item
11033 NR 0
11034 TC 0
11035 PU NATURE PUBLISHING GROUP
11036 PI LONDON
11037 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11038 SN 0028-0836
11039 J9 NATURE
11040 JI Nature
11041 PD OCT 6
11042 PY 2005
11043 VL 437
11044 IS 7060
11045 BP 797
11046 EP 797
11047 PG 1
11048 SC Multidisciplinary Sciences
11049 GA 970VB
11050 UT ISI:000232338600006
11051 ER
11052
11053 PT J
11054 AU Dennis, C
11055 TI Electric current captures top sperm
11056 SO NATURE
11057 LA English
11058 DT News Item
11059 AB A new method using electrophoresis has been developed to separate sperm
11060 from semen. An electric current is used to draw negatively charged
11061 sperm across a membrane leaving the unwanted portion behind. It is
11062 hoped that this method will help couples conceive following failure in
11063 other in vitro fertilization techniques.
11064 NR 1
11065 TC 0
11066 PU NATURE PUBLISHING GROUP
11067 PI LONDON
11068 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11069 SN 0028-0836
11070 J9 NATURE
11071 JI Nature
11072 PD OCT 6
11073 PY 2005
11074 VL 437
11075 IS 7060
11076 BP 799
11077 EP 799
11078 PG 1
11079 SC Multidisciplinary Sciences
11080 GA 970VB
11081 UT ISI:000232338600007
11082 ER
11083
11084 PT J
11085 AU Dennis, C
11086 TI Australia mooted as dump for world's nuclear waste
11087 SO NATURE
11088 LA English
11089 DT News Item
11090 AB Australia, one of the worlds largest uranium suppliers, has been
11091 suggested as the site for nuclear waste disposal. Overseas
11092 nuclear-power users would pay todispose of waste material on Australian
11093 shores where it would then be transported to sparsely populated regions
11094 of Western Australia. Environmentalists areconcerned about the
11095 consequences following accidents transporting such volumes of nuclear
11096 waste.
11097 NR 0
11098 TC 0
11099 PU NATURE PUBLISHING GROUP
11100 PI LONDON
11101 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11102 SN 0028-0836
11103 J9 NATURE
11104 JI Nature
11105 PD OCT 6
11106 PY 2005
11107 VL 437
11108 IS 7060
11109 BP 799
11110 EP 799
11111 PG 1
11112 SC Multidisciplinary Sciences
11113 GA 970VB
11114 UT ISI:000232338600008
11115 ER
11116
11117 PT J
11118 AU Giles, J
11119 TI Physics prize puts spotlight on optics
11120 SO NATURE
11121 LA English
11122 DT News Item
11123 NR 0
11124 TC 0
11125 PU NATURE PUBLISHING GROUP
11126 PI LONDON
11127 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11128 SN 0028-0836
11129 J9 NATURE
11130 JI Nature
11131 PD OCT 6
11132 PY 2005
11133 VL 437
11134 IS 7060
11135 BP 800
11136 EP 801
11137 PG 2
11138 SC Multidisciplinary Sciences
11139 GA 970VB
11140 UT ISI:000232338600009
11141 ER
11142
11143 PT J
11144 AU Dalton, R
11145 TI California prepares to roll out stem-cell funding
11146 SO NATURE
11147 LA English
11148 DT News Item
11149 AB The California Institute for Regenerative Medicine has been unable to
11150 issue grant money it was awarded for stem-cell research due to ongoing
11151 legal battles, but it now starting the process of allocating funds to
11152 research and training programs. Despite the fact that no money is yet
11153 available, the University of Southern California in Los Angeles will
11154 soon announce plans for a large new building devoted to stem-cell
11155 research. Elsewhere young researchers and senior faculty members are
11156 considering moving to California in search of research funds.
11157 NR 1
11158 TC 0
11159 PU NATURE PUBLISHING GROUP
11160 PI LONDON
11161 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11162 SN 0028-0836
11163 J9 NATURE
11164 JI Nature
11165 PD OCT 6
11166 PY 2005
11167 VL 437
11168 IS 7060
11169 BP 800
11170 EP 801
11171 PG 2
11172 SC Multidisciplinary Sciences
11173 GA 970VB
11174 UT ISI:000232338600010
11175 ER
11176
11177 PT J
11178 AU Abbott, A
11179 TI Gut feeling secures medical Nobel for Australian doctors
11180 SO NATURE
11181 LA English
11182 DT News Item
11183 AB Barry Marshall and Robin Warren have won this year's Nobel Prize in
11184 Medicine or Physiology for discovering that most stomach ulcers are
11185 caused by the bacterium Helicobacter pylori. For a long time
11186 gastroenterologists resisted the idea, the stomach was thought to be
11187 too acidic to host bacteria. It is now accepted that most gastric
11188 ulcers are caused by the bacterium, it is usually acquiredin childhood,
11189 it then lies dormant until adulthood.
11190 NR 0
11191 TC 0
11192 PU NATURE PUBLISHING GROUP
11193 PI LONDON
11194 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11195 SN 0028-0836
11196 J9 NATURE
11197 JI Nature
11198 PD OCT 6
11199 PY 2005
11200 VL 437
11201 IS 7060
11202 BP 801
11203 EP 801
11204 PG 1
11205 SC Multidisciplinary Sciences
11206 GA 970VB
11207 UT ISI:000232338600011
11208 ER
11209
11210 PT J
11211 AU Chipman, A
11212 TI Fatal attraction (vol 436, pg 624, 2005)
11213 SO NATURE
11214 LA English
11215 DT Correction
11216 NR 1
11217 TC 0
11218 PU NATURE PUBLISHING GROUP
11219 PI LONDON
11220 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11221 SN 0028-0836
11222 J9 NATURE
11223 JI Nature
11224 PD OCT 6
11225 PY 2005
11226 VL 437
11227 IS 7060
11228 BP 803
11229 EP 803
11230 PG 1
11231 SC Multidisciplinary Sciences
11232 GA 970VB
11233 UT ISI:000232338600012
11234 ER
11235
11236 PT J
11237 AU Langleben, D
11238 TI Brain imaging ready to detect terrorists, say neuroscientist (vol 437,
11239 pg 457, 2005)
11240 SO NATURE
11241 LA English
11242 DT Correction
11243 NR 1
11244 TC 0
11245 PU NATURE PUBLISHING GROUP
11246 PI LONDON
11247 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11248 SN 0028-0836
11249 J9 NATURE
11250 JI Nature
11251 PD OCT 6
11252 PY 2005
11253 VL 437
11254 IS 7060
11255 BP 803
11256 EP 803
11257 PG 1
11258 SC Multidisciplinary Sciences
11259 GA 970VB
11260 UT ISI:000232338600013
11261 ER
11262
11263 PT J
11264 AU Qiu, J
11265 TI Flight of the navigators
11266 SO NATURE
11267 LA English
11268 DT News Item
11269 AB The Arctic is a unique testing ground for studying how birds navigate
11270 long distances, one of ornithology's greatest mysteries. Birds use a
11271 number of different navigational cues, the Earth's magnetic field, the
11272 landscape and the position of the Sun and stars. Studies on bird
11273 navigation will have implications forpreventing or containing animal
11274 based epidemics such as avian influenza.
11275 NR 4
11276 TC 0
11277 PU NATURE PUBLISHING GROUP
11278 PI LONDON
11279 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11280 SN 0028-0836
11281 J9 NATURE
11282 JI Nature
11283 PD OCT 6
11284 PY 2005
11285 VL 437
11286 IS 7060
11287 BP 804
11288 EP 806
11289 PG 3
11290 SC Multidisciplinary Sciences
11291 GA 970VB
11292 UT ISI:000232338600014
11293 ER
11294
11295 PT J
11296 AU Marris, E
11297 TI Chemical reaction
11298 SO NATURE
11299 LA English
11300 DT News Item
11301 NR 0
11302 TC 0
11303 PU NATURE PUBLISHING GROUP
11304 PI LONDON
11305 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11306 SN 0028-0836
11307 J9 NATURE
11308 JI Nature
11309 PD OCT 6
11310 PY 2005
11311 VL 437
11312 IS 7060
11313 BP 807
11314 EP 809
11315 PG 3
11316 SC Multidisciplinary Sciences
11317 GA 970VB
11318 UT ISI:000232338600015
11319 ER
11320
11321 PT J
11322 AU Cyranoski, D
11323 TI Paper chase
11324 SO NATURE
11325 LA English
11326 DT News Item
11327 ID OLFACTORY ENSHEATHING CELLS; FUNCTIONAL RECOVERY; TRANSPLANTATION; GLIA
11328 AB Hongyun Huang, a Beijing neurosurgeon, transplants olfactory
11329 ensheathing cellsinto the brains of patients with neurological
11330 disorders. Patient results and views on this scientifically unproven
11331 and expensive therapy are mixed. Westernmedical journals refuse to
11332 publish Hongyun Huang's findings as he uses video-patient testimonials
11333 as his research validation instead of proven scientific methods.
11334 NR 5
11335 TC 0
11336 PU NATURE PUBLISHING GROUP
11337 PI LONDON
11338 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11339 SN 0028-0836
11340 J9 NATURE
11341 JI Nature
11342 PD OCT 6
11343 PY 2005
11344 VL 437
11345 IS 7060
11346 BP 810
11347 EP 811
11348 PG 2
11349 SC Multidisciplinary Sciences
11350 GA 970VB
11351 UT ISI:000232338600016
11352 ER
11353
11354 PT J
11355 AU Giles, J
11356 TI Innovation endgame
11357 SO NATURE
11358 LA English
11359 DT News Item
11360 NR 0
11361 TC 0
11362 PU NATURE PUBLISHING GROUP
11363 PI LONDON
11364 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11365 SN 0028-0836
11366 J9 NATURE
11367 JI Nature
11368 PD OCT 6
11369 PY 2005
11370 VL 437
11371 IS 7060
11372 BP 813
11373 EP 813
11374 PG 1
11375 SC Multidisciplinary Sciences
11376 GA 970VB
11377 UT ISI:000232338600017
11378 ER
11379
11380 PT J
11381 AU May, R
11382 TI Media should campaign on the basis of facts
11383 SO NATURE
11384 LA English
11385 DT Letter
11386 C1 Royal Soc, London SW1Y 5AG, England.
11387 RP May, R, Royal Soc, 6-9 Carlton House Terrace, London SW1Y 5AG, England.
11388 NR 1
11389 TC 0
11390 PU NATURE PUBLISHING GROUP
11391 PI LONDON
11392 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11393 SN 0028-0836
11394 J9 NATURE
11395 JI Nature
11396 PD OCT 6
11397 PY 2005
11398 VL 437
11399 IS 7060
11400 BP 814
11401 EP 814
11402 PG 1
11403 SC Multidisciplinary Sciences
11404 GA 970VB
11405 UT ISI:000232338600018
11406 ER
11407
11408 PT J
11409 AU Primorac, D
11410 TI No evidence for Croatian race claims
11411 SO NATURE
11412 LA English
11413 DT Letter
11414 C1 Minist Sci Educ & Sports, Zagreb 10000, Croatia.
11415 RP Primorac, D, Minist Sci Educ & Sports, Trg Hrvatskih Velikana 6, Zagreb
11416 10000, Croatia.
11417 NR 1
11418 TC 0
11419 PU NATURE PUBLISHING GROUP
11420 PI LONDON
11421 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11422 SN 0028-0836
11423 J9 NATURE
11424 JI Nature
11425 PD OCT 6
11426 PY 2005
11427 VL 437
11428 IS 7060
11429 BP 814
11430 EP 814
11431 PG 1
11432 SC Multidisciplinary Sciences
11433 GA 970VB
11434 UT ISI:000232338600019
11435 ER
11436
11437 PT J
11438 AU Larner, SF
11439 TI Katrina: don't blame the Bush administration
11440 SO NATURE
11441 LA English
11442 DT Letter
11443 C1 Univ Florida, McKnight Brain Inst, Ctr Traumat Brain Injury Studies, Dept Neurosci, Gainesville, FL 32610 USA.
11444 RP Larner, SF, Univ Florida, McKnight Brain Inst, Ctr Traumat Brain Injury
11445 Studies, Dept Neurosci, Box 100244, Gainesville, FL 32610 USA.
11446 NR 1
11447 TC 0
11448 PU NATURE PUBLISHING GROUP
11449 PI LONDON
11450 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11451 SN 0028-0836
11452 J9 NATURE
11453 JI Nature
11454 PD OCT 6
11455 PY 2005
11456 VL 437
11457 IS 7060
11458 BP 814
11459 EP 814
11460 PG 1
11461 SC Multidisciplinary Sciences
11462 GA 970VB
11463 UT ISI:000232338600020
11464 ER
11465
11466 PT J
11467 AU Chaiken, A
11468 TI Katrina revealed need for reform. Let's not forget
11469 SO NATURE
11470 LA English
11471 DT Letter
11472 RP Chaiken, A, 47 Esparito Ave, Fremont, CA 94539 USA.
11473 NR 1
11474 TC 0
11475 PU NATURE PUBLISHING GROUP
11476 PI LONDON
11477 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11478 SN 0028-0836
11479 J9 NATURE
11480 JI Nature
11481 PD OCT 6
11482 PY 2005
11483 VL 437
11484 IS 7060
11485 BP 814
11486 EP 814
11487 PG 1
11488 SC Multidisciplinary Sciences
11489 GA 970VB
11490 UT ISI:000232338600021
11491 ER
11492
11493 PT J
11494 AU Brooke, JH
11495 TI The evolution-creation struggle
11496 SO NATURE
11497 LA English
11498 DT Book Review
11499 C1 Univ Oxford, Harris Manchester Coll, Oxford OX1 3TD, England.
11500 RP Brooke, JH, Univ Oxford, Harris Manchester Coll, Oxford OX1 3TD,
11501 England.
11502 NR 1
11503 TC 0
11504 PU NATURE PUBLISHING GROUP
11505 PI LONDON
11506 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11507 SN 0028-0836
11508 J9 NATURE
11509 JI Nature
11510 PD OCT 6
11511 PY 2005
11512 VL 437
11513 IS 7060
11514 BP 815
11515 EP 816
11516 PG 2
11517 SC Multidisciplinary Sciences
11518 GA 970VB
11519 UT ISI:000232338600022
11520 ER
11521
11522 PT J
11523 AU Ralston, A
11524 TI Electronic brains: Stories from the dawn of the computer age
11525 SO NATURE
11526 LA English
11527 DT Book Review
11528 C1 SUNY Buffalo, Buffalo, NY 14260 USA.
11529 RP Ralston, A, Flat 4,58 Prince Consort Rd, London SW7 2BE, England.
11530 NR 1
11531 TC 0
11532 PU NATURE PUBLISHING GROUP
11533 PI LONDON
11534 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11535 SN 0028-0836
11536 J9 NATURE
11537 JI Nature
11538 PD OCT 6
11539 PY 2005
11540 VL 437
11541 IS 7060
11542 BP 816
11543 EP 816
11544 PG 1
11545 SC Multidisciplinary Sciences
11546 GA 970VB
11547 UT ISI:000232338600023
11548 ER
11549
11550 PT J
11551 AU Gregory, RL
11552 TI Action in perception
11553 SO NATURE
11554 LA English
11555 DT Book Review
11556 C1 Univ Bristol, Dept Expt Psychol, Bristol BS8 1TN, Avon, England.
11557 RP Gregory, RL, Univ Bristol, Dept Expt Psychol, Bristol BS8 1TN, Avon,
11558 England.
11559 NR 1
11560 TC 0
11561 PU NATURE PUBLISHING GROUP
11562 PI LONDON
11563 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11564 SN 0028-0836
11565 J9 NATURE
11566 JI Nature
11567 PD OCT 6
11568 PY 2005
11569 VL 437
11570 IS 7060
11571 BP 817
11572 EP 817
11573 PG 1
11574 SC Multidisciplinary Sciences
11575 GA 970VB
11576 UT ISI:000232338600024
11577 ER
11578
11579 PT J
11580 AU Davies, P
11581 TI A quantum recipe for life
11582 SO NATURE
11583 LA English
11584 DT Editorial Material
11585 C1 Macquarie Univ, Australian Ctr Astrobiol, Sydney, NSW 2109, Australia.
11586 RP Davies, P, Macquarie Univ, Australian Ctr Astrobiol, Sydney, NSW 2109,
11587 Australia.
11588 NR 0
11589 TC 0
11590 PU NATURE PUBLISHING GROUP
11591 PI LONDON
11592 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11593 SN 0028-0836
11594 J9 NATURE
11595 JI Nature
11596 PD OCT 6
11597 PY 2005
11598 VL 437
11599 IS 7060
11600 BP 819
11601 EP 819
11602 PG 1
11603 SC Multidisciplinary Sciences
11604 GA 970VB
11605 UT ISI:000232338600025
11606 ER
11607
11608 PT J
11609 AU Blaylock, B
11610 Schneewind, O
11611 TI Microbiology - Loading the type III cannon
11612 SO NATURE
11613 LA English
11614 DT Editorial Material
11615 ID FLAGELLAR EXPORT APPARATUS; MEMBRANE ATPASE; CHAPERONE; SALMONELLA;
11616 COMPLEX
11617 C1 Univ Chicago, Dept Microbiol, Chicago, IL 60637 USA.
11618 RP Blaylock, B, Univ Chicago, Dept Microbiol, 920 E 58th St, Chicago, IL
11619 60637 USA.
11620 EM oschnee@bsd.uchicago.edu
11621 NR 9
11622 TC 0
11623 PU NATURE PUBLISHING GROUP
11624 PI LONDON
11625 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11626 SN 0028-0836
11627 J9 NATURE
11628 JI Nature
11629 PD OCT 6
11630 PY 2005
11631 VL 437
11632 IS 7060
11633 BP 821
11634 EP 821
11635 PG 1
11636 SC Multidisciplinary Sciences
11637 GA 970VB
11638 UT ISI:000232338600026
11639 ER
11640
11641 PT J
11642 AU Piro, L
11643 TI Astrophysics - Short-burst sources
11644 SO NATURE
11645 LA English
11646 DT Editorial Material
11647 ID GAMMA-RAY BURSTS; 28 FEBRUARY 1997; SHORT-DURATION; EMISSION
11648 C1 INAF, Ist Astrofis Spaziale & Fis Cosm, I-00133 Rome, Italy.
11649 RP Piro, L, INAF, Ist Astrofis Spaziale & Fis Cosm, Via Fosso del
11650 Cavaliere 100, I-00133 Rome, Italy.
11651 EM piro@rm.iasf.cnr.it
11652 NR 12
11653 TC 0
11654 PU NATURE PUBLISHING GROUP
11655 PI LONDON
11656 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11657 SN 0028-0836
11658 J9 NATURE
11659 JI Nature
11660 PD OCT 6
11661 PY 2005
11662 VL 437
11663 IS 7060
11664 BP 822
11665 EP 823
11666 PG 2
11667 SC Multidisciplinary Sciences
11668 GA 970VB
11669 UT ISI:000232338600027
11670 ER
11671
11672 PT J
11673 AU Sanders, IR
11674 TI Microbiology - Conspirators in blight
11675 SO NATURE
11676 LA English
11677 DT Editorial Material
11678 C1 Univ Lausanne, Dept Ecol & Evolut, CH-1015 Lausanne, Switzerland.
11679 RP Sanders, IR, Univ Lausanne, Dept Ecol & Evolut, Biol Bldg, CH-1015
11680 Lausanne, Switzerland.
11681 EM ian.sanders@unil.ch
11682 NR 6
11683 TC 0
11684 PU NATURE PUBLISHING GROUP
11685 PI LONDON
11686 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11687 SN 0028-0836
11688 J9 NATURE
11689 JI Nature
11690 PD OCT 6
11691 PY 2005
11692 VL 437
11693 IS 7060
11694 BP 823
11695 EP 824
11696 PG 2
11697 SC Multidisciplinary Sciences
11698 GA 970VB
11699 UT ISI:000232338600028
11700 ER
11701
11702 PT J
11703 AU Kramer, EJ
11704 TI Condensed-matter physics - Melted by mistakes
11705 SO NATURE
11706 LA English
11707 DT Editorial Material
11708 ID QUASI-2-DIMENSIONAL COLLOID SUSPENSION; 2 DIMENSIONS;
11709 PHASE-TRANSITIONS; ORDER
11710 C1 Univ Calif Santa Barbara, Dept Mat, Santa Barbara, CA 93106 USA.
11711 Univ Calif Santa Barbara, Dept Chem Engn, Santa Barbara, CA 93106 USA.
11712 RP Kramer, EJ, Univ Calif Santa Barbara, Dept Mat, 2-1361C, Santa Barbara,
11713 CA 93106 USA.
11714 EM edkramer@mrl.ucsb.edu
11715 NR 17
11716 TC 0
11717 PU NATURE PUBLISHING GROUP
11718 PI LONDON
11719 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11720 SN 0028-0836
11721 J9 NATURE
11722 JI Nature
11723 PD OCT 6
11724 PY 2005
11725 VL 437
11726 IS 7060
11727 BP 824
11728 EP 825
11729 PG 2
11730 SC Multidisciplinary Sciences
11731 GA 970VB
11732 UT ISI:000232338600029
11733 ER
11734
11735 PT J
11736 AU Sims, DW
11737 TI Ecology - Stars beneath the waves
11738 SO NATURE
11739 LA English
11740 DT Editorial Material
11741 C1 Marine Biol Assoc United Kingdom Lab, Plymouth PL1 2PB, Devon, England.
11742 RP Sims, DW, Marine Biol Assoc United Kingdom Lab, Citadel Hill, Plymouth
11743 PL1 2PB, Devon, England.
11744 EM dws@mba.ac.uk
11745 NR 0
11746 TC 0
11747 PU NATURE PUBLISHING GROUP
11748 PI LONDON
11749 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11750 SN 0028-0836
11751 J9 NATURE
11752 JI Nature
11753 PD OCT 6
11754 PY 2005
11755 VL 437
11756 IS 7060
11757 BP 826
11758 EP 826
11759 PG 1
11760 SC Multidisciplinary Sciences
11761 GA 970VB
11762 UT ISI:000232338600030
11763 ER
11764
11765 PT J
11766 AU Des Marais, DJ
11767 TI Palaeobiology - Sea change in sediments
11768 SO NATURE
11769 LA English
11770 DT Editorial Material
11771 ID PROTEROZOIC OCEAN CHEMISTRY; EVOLUTION
11772 C1 NASA, Exobiol Branch, Ames Res Ctr, Moffett Field, CA 94035 USA.
11773 NASA, Astrobiol Inst, Ames Res Ctr, Moffett Field, CA 94035 USA.
11774 RP Des Marais, DJ, NASA, Exobiol Branch, Ames Res Ctr, MS 239-4, Moffett
11775 Field, CA 94035 USA.
11776 EM david.j.desmarais@nasa.gov
11777 NR 9
11778 TC 0
11779 PU NATURE PUBLISHING GROUP
11780 PI LONDON
11781 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11782 SN 0028-0836
11783 J9 NATURE
11784 JI Nature
11785 PD OCT 6
11786 PY 2005
11787 VL 437
11788 IS 7060
11789 BP 826
11790 EP 827
11791 PG 2
11792 SC Multidisciplinary Sciences
11793 GA 970VB
11794 UT ISI:000232338600031
11795 ER
11796
11797 PT J
11798 AU Mestel, L
11799 TI Hermann Bondi (1919-2005) - Obituary
11800 SO NATURE
11801 LA English
11802 DT Biographical-Item
11803 C1 Univ Sussex, Brighton BN1 9QH, E Sussex, England.
11804 RP Mestel, L, Univ Sussex, Brighton BN1 9QH, E Sussex, England.
11805 EM lmestel@sussex.ac.uk
11806 NR 0
11807 TC 0
11808 PU NATURE PUBLISHING GROUP
11809 PI LONDON
11810 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11811 SN 0028-0836
11812 J9 NATURE
11813 JI Nature
11814 PD OCT 6
11815 PY 2005
11816 VL 437
11817 IS 7060
11818 BP 828
11819 EP 828
11820 PG 1
11821 SC Multidisciplinary Sciences
11822 GA 970VB
11823 UT ISI:000232338600032
11824 ER
11825
11826 PT J
11827 AU Nanork, P
11828 Paar, J
11829 Chapman, NC
11830 Wongsiri, S
11831 Oldroyd, BP
11832 TI Asian honeybees parasitize the future dead
11833 SO NATURE
11834 LA English
11835 DT Editorial Material
11836 ID COLONIES
11837 C1 Chulalongkorn Univ, Dept Biol, Bangkok 10330, Thailand.
11838 Univ Sydney, Sch Biol Sci A12, Sydney, NSW 2006, Australia.
11839 Mahasarakham Univ, Dept Biol, Mahasarakham 44150, Thailand.
11840 RP Nanork, P, Chulalongkorn Univ, Dept Biol, Bangkok 10330, Thailand.
11841 EM boldroyd@bio.usyd.edu.au
11842 NR 5
11843 TC 0
11844 PU NATURE PUBLISHING GROUP
11845 PI LONDON
11846 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11847 SN 0028-0836
11848 J9 NATURE
11849 JI Nature
11850 PD OCT 6
11851 PY 2005
11852 VL 437
11853 IS 7060
11854 BP 829
11855 EP 829
11856 PG 1
11857 SC Multidisciplinary Sciences
11858 GA 970VB
11859 UT ISI:000232338600033
11860 ER
11861
11862 PT J
11863 AU Gomberg, J
11864 Johnson, P
11865 TI Seismology - Dynamic triggering of earthquakes
11866 SO NATURE
11867 LA English
11868 DT Editorial Material
11869 ID DEFORMATIONS
11870 C1 US Geol Survey, Memphis, TN 38152 USA.
11871 Los Alamos Natl Lab, Geophys Grp EES11, Los Alamos, NM 87545 USA.
11872 RP Gomberg, J, US Geol Survey, Suite 2, Memphis, TN 38152 USA.
11873 EM gomberg@usgs.gov
11874 NR 10
11875 TC 0
11876 PU NATURE PUBLISHING GROUP
11877 PI LONDON
11878 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11879 SN 0028-0836
11880 J9 NATURE
11881 JI Nature
11882 PD OCT 6
11883 PY 2005
11884 VL 437
11885 IS 7060
11886 BP 830
11887 EP 830
11888 PG 1
11889 SC Multidisciplinary Sciences
11890 GA 970VB
11891 UT ISI:000232338600034
11892 ER
11893
11894 PT J
11895 AU Yan, N
11896 Chai, JJ
11897 Lee, ES
11898 Gu, LC
11899 Liu, Q
11900 He, JQ
11901 Wu, JW
11902 Kokel, D
11903 Li, HL
11904 Hao, Q
11905 Xue, D
11906 Shi, YG
11907 TI Structure of the CED-4-CED-9 complex provides insights into programmed
11908 cell death in Caenorhabditis elegans
11909 SO NATURE
11910 LA English
11911 DT Article
11912 ID REGULATORS CED-9; PROTEIN CED-9; ENCODES; EGL-1; ACTIVATION; APOPTOSIS;
11913 CRYSTALLOGRAPHY; OLIGOMERIZATION; RECOGNITION; ASSOCIATION
11914 AB Interplay among four genes - egl-1, ced-9, ced-4 and ced-3 - controls
11915 the onset of programmed cell death in the nematode Caenorhabditis
11916 elegans. Activation of the cell-killing protease CED-3 requires CED-4.
11917 However, CED-4 is constitutively inhibited by CED-9 until its release
11918 by EGL-1. Here we report the crystal structure of the CED-4 - CED-9
11919 complex at 2.6 angstrom resolution, and a complete reconstitution of
11920 the CED-3 activation pathway using homogeneous proteins of CED-4, CED-9
11921 and EGL-1. One molecule of CED-9 binds to an asymmetric dimer of CED-4,
11922 but specifically recognizes only one of the two CED-4 molecules. This
11923 specific interaction prevents CED-4 from activating CED-3. EGL-1
11924 binding induces pronounced conformational changes in CED-9 that result
11925 in the dissociation of the CED-4 dimer from CED-9. The released CED-4
11926 dimer further dimerizes to form a tetramer, which facilitates the
11927 autoactivation of CED-3. Together, our studies provide important
11928 insights into the regulation of cell death activation in C. elegans.
11929 C1 Princeton Univ, Lewis Thomas Lab, Dept Mol Biol, Princeton, NJ 08544 USA.
11930 Univ Colorado, Dept Mol Cellular & Dev Biol, Boulder, CO 80309 USA.
11931 Gwangju Inst Sci & Technol, Dept Life Sci, Kwangju 500712, South Korea.
11932 Cornell Univ, Ithaca, NY 14853 USA.
11933 Brookhaven Natl Lab, Dept Biol, Upton, NY 11973 USA.
11934 RP Shi, YG, Princeton Univ, Lewis Thomas Lab, Dept Mol Biol, Washington
11935 Rd, Princeton, NJ 08544 USA.
11936 EM yshi@molbio.princeton.edu
11937 NR 40
11938 TC 1
11939 PU NATURE PUBLISHING GROUP
11940 PI LONDON
11941 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11942 SN 0028-0836
11943 J9 NATURE
11944 JI Nature
11945 PD OCT 6
11946 PY 2005
11947 VL 437
11948 IS 7060
11949 BP 831
11950 EP 837
11951 PG 7
11952 SC Multidisciplinary Sciences
11953 GA 970VB
11954 UT ISI:000232338600035
11955 ER
11956
11957 PT J
11958 AU Higgins, LJ
11959 Yan, F
11960 Liu, PH
11961 Liu, HW
11962 Drennan, CL
11963 TI Structural insight into antibiotic fosfomycin biosynthesis by a
11964 mononuclear iron enzyme
11965 SO NATURE
11966 LA English
11967 DT Article
11968 ID (S)-2-HYDROXYPROPYLPHOSPHONIC ACID EPOXIDASE; SUPERFAMILY; SUBSTRATE;
11969 DIOXYGENASE; COMPLEX; CUPINS; TAUD
11970 AB The biosynthetic pathway of the clinically important antibiotic
11971 fosfomycin uses enzymes that catalyse reactions without precedent in
11972 biology. Among these is hydroxypropylphosphonic acid epoxidase, which
11973 represents a new subfamily of non-haem mononuclear iron enzymes. Here
11974 we present six X-ray structures of this enzyme: the apoenzyme at 2.0
11975 angstrom resolution; a native Fe(II)-bound form at 2.4 angstrom
11976 resolution; a tris( hydroxymethyl) aminomethane - Co( II)- enzyme
11977 complex structure at 1.8 angstrom resolution; a substrate - Co( II)-
11978 enzyme complex structure at 2.5 angstrom resolution; and two substrate
11979 - Fe( II)enzyme complexes at 2.1 and 2.3 angstrom resolution. These
11980 structural data lead us to suggest how this enzyme is able to recognize
11981 and respond to its substrate with a conformational change that protects
11982 the radical-based intermediates formed during catalysis. Comparisons
11983 with other family members suggest why substrate binding is able to
11984 prime iron for dioxygen binding in the absence of alpha-ketoglutarate (
11985 a co-substrate required by many mononuclear iron enzymes), and how the
11986 unique epoxidation reaction of hydroxypropylphosphonic acid epoxidase
11987 may occur.
11988 C1 MIT, Dept Chem, Cambridge, MA 02139 USA.
11989 Univ Texas, Dept Chem & Biochem, Austin, TX 78712 USA.
11990 RP Higgins, LJ, MIT, Dept Chem, Cambridge, MA 02139 USA.
11991 NR 31
11992 TC 0
11993 PU NATURE PUBLISHING GROUP
11994 PI LONDON
11995 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
11996 SN 0028-0836
11997 J9 NATURE
11998 JI Nature
11999 PD OCT 6
12000 PY 2005
12001 VL 437
12002 IS 7060
12003 BP 838
12004 EP 844
12005 PG 7
12006 SC Multidisciplinary Sciences
12007 GA 970VB
12008 UT ISI:000232338600036
12009 ER
12010
12011 PT J
12012 AU Fox, DB
12013 Frail, DA
12014 Price, PA
12015 Kulkarni, SR
12016 Berger, E
12017 Piran, T
12018 Soderberg, AM
12019 Cenko, SB
12020 Cameron, PB
12021 Gal-Yam, A
12022 Kasliwal, MM
12023 Moon, DS
12024 Harrison, FA
12025 Nakar, E
12026 Schmidt, BP
12027 Penprase, B
12028 Chevalier, RA
12029 Kumar, P
12030 Roth, K
12031 Watson, D
12032 Lee, BL
12033 Shectman, S
12034 Phillips, MM
12035 Roth, M
12036 McCarthy, PJ
12037 Rauch, M
12038 Cowie, L
12039 Peterson, BA
12040 Rich, J
12041 Kawai, N
12042 Aoki, K
12043 Kosugi, G
12044 Totani, T
12045 Park, HS
12046 MacFadyen, A
12047 Hurley, KC
12048 TI The afterglow of GRB 050709 and the nature of the short-hard gamma-ray
12049 bursts
12050 SO NATURE
12051 LA English
12052 DT Article
12053 ID 25 APRIL 1998; UNUSUAL SUPERNOVA; SHORT-DURATION; EMISSION; MERGERS;
12054 IMAGES; ENERGY; STARS; LONG
12055 AB The final chapter in the long-standing mystery of the gamma-ray bursts
12056 (GRBs) centres on the origin of the short-hard class of bursts, which
12057 are suspected on theoretical grounds to result from the coalescence of
12058 neutron-star or black-hole binary systems. Numerous searches for the
12059 afterglows of short-hard bursts have been made, galvanized by the
12060 revolution in our understanding of long-duration GRBs that followed the
12061 discovery in 1997 of their broadband (X-ray, optical and radio)
12062 afterglow emission. Here we present the discovery of the X-ray
12063 afterglow of a short-hard burst, GRB 050709, whose accurate position
12064 allows us to associate it unambiguously with a star-forming galaxy at
12065 redshift z = 0.160, and whose optical lightcurve definitively excludes
12066 a supernova association. Together with results from three other recent
12067 short-hard bursts, this suggests that short-hard bursts release much
12068 less energy than the long-duration GRBs. Models requiring young stellar
12069 populations, such as magnetars and collapsars, are ruled out, while
12070 coalescing degenerate binaries remain the most promising progenitor
12071 candidates.
12072 C1 Natl Radio Astron Observ, Socorro, NM 87801 USA.
12073 CALTECH, Div Phys Math & Astron, Pasadena, CA 91125 USA.
12074 Penn State Univ, Dept Astron & Astrophys, Davey Lab 525, University Pk, PA 16802 USA.
12075 Univ Hawaii, Inst Astron, Honolulu, HI 96822 USA.
12076 Carnegie Observ, Pasadena, CA 91101 USA.
12077 Hebrew Univ Jerusalem, Racah Inst Phys, IL-91904 Jerusalem, Israel.
12078 Australian Natl Univ, Res Sch Astron & Astrophys, Weston, ACT 2611, Australia.
12079 Pomona Coll, Claremont, CA 91711 USA.
12080 Univ Virginia, Dept Astron, Charlottesville, VA 22903 USA.
12081 Univ Texas, Dept Astron, Austin, TX 78731 USA.
12082 Gemini Observ, Hilo, HI 96720 USA.
12083 Univ Copenhagen, Niels Bohr Inst, DK-2100 Copenhagen, Denmark.
12084 Univ Toronto, Dept Astron & Astrophys, Toronto, ON M5S 3H8, Canada.
12085 Tokyo Inst Technol, Dept Phys, Meguro Ku, Tokyo 1528551, Japan.
12086 Natl Astron Observ Japan, Subaru Telescope, Hilo, HI 96720 USA.
12087 Kyoto Univ, Sch Sci, Dept Astron, Sakyo Ku, Kyoto 6068502, Japan.
12088 Lawrence Livermore Natl Lab, Livermore, CA 94550 USA.
12089 Inst Adv Study, Princeton, NJ 08540 USA.
12090 Univ Calif Berkeley, Space Sci Lab, Berkeley, CA 94720 USA.
12091 RP Frail, DA, Natl Radio Astron Observ, POB O, Socorro, NM 87801 USA.
12092 EM dfox@astro.psu.edu
12093 dfrail@nrao.edu
12094 NR 43
12095 TC 2
12096 PU NATURE PUBLISHING GROUP
12097 PI LONDON
12098 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12099 SN 0028-0836
12100 J9 NATURE
12101 JI Nature
12102 PD OCT 6
12103 PY 2005
12104 VL 437
12105 IS 7060
12106 BP 845
12107 EP 850
12108 PG 6
12109 SC Multidisciplinary Sciences
12110 GA 970VB
12111 UT ISI:000232338600037
12112 ER
12113
12114 PT J
12115 AU Gehrels, N
12116 Sarazin, CL
12117 O'Brien, PT
12118 Zhang, B
12119 Barbier, L
12120 Barthelmy, SD
12121 Blustin, A
12122 Burrows, DN
12123 Cannizzo, J
12124 Cummings, JR
12125 Goad, M
12126 Holland, ST
12127 Hurkett, CP
12128 Kennea, JA
12129 Levan, A
12130 Markwardt, CB
12131 Mason, KO
12132 Meszaros, P
12133 Page, M
12134 Palmer, DM
12135 Rol, E
12136 Sakamoto, T
12137 Willingale, R
12138 Angelini, L
12139 Beardmore, A
12140 Boyd, PT
12141 Breeveld, A
12142 Campana, S
12143 Chester, MM
12144 Chincarini, G
12145 Cominsky, LR
12146 Cusumano, G
12147 de Pasquale, M
12148 Fenimore, EE
12149 Giommi, P
12150 Gronwall, C
12151 Grupe, D
12152 Hill, JE
12153 Hinshaw, D
12154 Hjorth, J
12155 Hullinger, D
12156 Hurley, KC
12157 Klose, S
12158 Kobayashi, S
12159 Kouveliotou, C
12160 Krimm, HA
12161 Mangano, V
12162 Marshall, FE
12163 McGowan, K
12164 Moretti, A
12165 Mushotzky, RF
12166 Nakazawa, K
12167 Norris, JP
12168 Nousek, JA
12169 Osborne, JP
12170 Page, K
12171 Parsons, AM
12172 Patel, S
12173 Perri, M
12174 Poole, T
12175 Romano, P
12176 Roming, PWA
12177 Rosen, S
12178 Sato, G
12179 Schady, P
12180 Smale, AP
12181 Sollerman, J
12182 Starling, R
12183 Still, M
12184 Suzuki, M
12185 Tagliaferri, G
12186 Takahashi, T
12187 Tashiro, M
12188 Tueller, J
12189 Wells, AA
12190 White, NE
12191 Wijers, RAMJ
12192 TI A short gamma-ray burst apparently associated with an elliptical galaxy
12193 at redshift z=0.225
12194 SO NATURE
12195 LA English
12196 DT Article
12197 ID SHORT-DURATION; NEUTRON-STARS; AFTERGLOWS; SGR-1806-20; BINARIES; FLARE
12198 AB Gamma-ray bursts (GRBs) come in two classes(1): long (> 2 s),
12199 soft-spectrum bursts and short, hard events. Most progress has been
12200 made on understanding the long GRBs, which are typically observed at
12201 high redshift ( z approximate to 1) and found in subluminous
12202 star-forming host galaxies. They are likely to be produced in
12203 core-collapse explosions of massive stars(2). In contrast, no short GRB
12204 had been accurately (< 1000) and rapidly ( minutes) located. Here we
12205 report the detection of the X-ray afterglow from - and the localization
12206 of - the short burst GRB 050509B. Its position on the sky is near a
12207 luminous, non-star-forming elliptical galaxy at a redshift of 0.225,
12208 which is the location one would expect(3,4) if the origin of this GRB
12209 is through the merger of neutron-star or blackhole binaries. The X-ray
12210 afterglow was weak and faded below the detection limit within a few
12211 hours; no optical afterglow was detected to stringent limits,
12212 explaining the past difficulty in localizing short GRBs.
12213 C1 NASA, Goddard Space Flight Ctr, Greenbelt, MD 20771 USA.
12214 Univ Virginia, Dept Astron, Charlottesville, VA 22903 USA.
12215 Univ Leicester, Dept Phys & Astron, Leicester LE1 7RH, Leics, England.
12216 Univ Nevada, Dept Phys, Las Vegas, NV 89154 USA.
12217 Univ Coll London, Mullard Space Sci Lab, Dorking RH5 6NT, Surrey, England.
12218 Penn State Univ, Dept Astron & Astrophys, University Pk, PA 16802 USA.
12219 Univ Maryland Baltimore Cty, Joint Ctr Astrophys, Baltimore, MD 21250 USA.
12220 CNR, Washington, DC 20418 USA.
12221 Univ Space Res Assoc, Columbia, MD 21044 USA.
12222 Univ Maryland, Dept Astron, College Pk, MD 20742 USA.
12223 Los Alamos Natl Lab, Los Alamos, NM 87545 USA.
12224 INAF, Osservatorio Astron Brera, I-23807 Merate, Italy.
12225 Univ Milano Bicocca, I-20126 Milan, Italy.
12226 Sonoma State Univ, Dept Phys & Astron, Rohnert Pk, CA 94928 USA.
12227 INAF, Ist Astrofis Spaziale & Cosm, I-90146 Palermo, Italy.
12228 ASI Sci Data Ctr, I-00044 Frascati, Italy.
12229 SP Syst Inc, Greenbelt, MD 20770 USA.
12230 Univ Copenhagen, Niels Bohr Inst, DK-2100 Copenhagen, Denmark.
12231 Univ Calif Berkeley, Space Sci Lab, Berkeley, CA 94720 USA.
12232 Thuringer Landessternwarte Tautenburg, D-07778 Tautenburg, Germany.
12233 NASA, George C Marshall Space Flight Ctr, NSSTC, Huntsville, AL 35805 USA.
12234 JAXA, Inst Space & Astronaut Sci, Kanagawa 2298510, Japan.
12235 Univ Space Res Assoc, NSSTC, Huntsville, AL 35805 USA.
12236 NASA Headquarters, Off Space Sci, Washington, DC 20546 USA.
12237 Stockholm Observ, Dept Astron, S-10691 Stockholm, Sweden.
12238 Univ Amsterdam, Astron Inst Anton Pannekoek, NL-1098 SJ Amsterdam, Netherlands.
12239 Saitama Univ, Dept Phys, Sakura, Saitama 3388570, Japan.
12240 RP Gehrels, N, NASA, Goddard Space Flight Ctr, Greenbelt, MD 20771 USA.
12241 EM gehrels@milkyway.gsfc.nasa.gov
12242 NR 30
12243 TC 2
12244 PU NATURE PUBLISHING GROUP
12245 PI LONDON
12246 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12247 SN 0028-0836
12248 J9 NATURE
12249 JI Nature
12250 PD OCT 6
12251 PY 2005
12252 VL 437
12253 IS 7060
12254 BP 851
12255 EP 854
12256 PG 4
12257 SC Multidisciplinary Sciences
12258 GA 970VB
12259 UT ISI:000232338600038
12260 ER
12261
12262 PT J
12263 AU Villasenor, JS
12264 Lamb, DQ
12265 Ricker, GR
12266 Atteia, JL
12267 Kawai, N
12268 Butler, N
12269 Nakagawa, Y
12270 Jernigan, JG
12271 Boer, M
12272 Crew, GB
12273 Donaghy, TQ
12274 Doty, J
12275 Fenimore, EE
12276 Galassi, M
12277 Graziani, C
12278 Hurley, K
12279 Levine, A
12280 Martel, F
12281 Matsuoka, M
12282 Olive, JF
12283 Prigozhin, G
12284 Sakamoto, T
12285 Shirasaki, Y
12286 Suzuki, M
12287 Tamagawa, T
12288 Vanderspek, R
12289 Woosley, SE
12290 Yoshida, A
12291 Braga, J
12292 Manchanda, R
12293 Pizzichini, G
12294 Takagishi, K
12295 Yamauchi, M
12296 TI Discovery of the short gamma-ray burst GRB 050709
12297 SO NATURE
12298 LA English
12299 DT Article
12300 ID 28 FEBRUARY 1997; SGR-1806-20; AFTERGLOW; SPECTRA; FLARE
12301 AB Gamma-ray bursts (GRBs) fall into two classes: short-hard and long-soft
12302 bursts(1-3). The latter are now known to have X-ray(4) and optical(5)
12303 afterglows, to occur at cosmological distances(6) in star-forming
12304 galaxies(7), and to be associated with the explosion of massive
12305 stars(8,9). In contrast, the distance scale, the energy scale and the
12306 progenitors of the short bursts have remained a mystery. Here we report
12307 the discovery of a short-hard burst whose accurate localization has led
12308 to follow-up observations that have identified the X-ray afterglow(10)
12309 and ( for the first time) the optical afterglow(10,11) of a short-hard
12310 burst; this in turn led to the identification of the host galaxy of the
12311 burst as a late-type galaxy at z = 0.16 (ref. 10). These results show
12312 that at least some short-hard bursts occur at cosmological distances in
12313 the outskirts of galaxies, and are likely to be caused by the merging
12314 of compact binaries.
12315 C1 MIT, Kavli Inst, Cambridge, MA 02139 USA.
12316 Univ Chicago, Dept Astron & Astrophys, Chicago, IL 60637 USA.
12317 Observ Midi Pyrenees, Astrophys Lab, F-31400 Toulouse, France.
12318 Tokyo Inst Technol, Dept Phys, Meguro Ku, Tokyo 1528551, Japan.
12319 Aoyama Gakuin Univ, Dept Math & Phys, Kanagawa 2298558, Japan.
12320 Univ Calif Berkeley, Space Sci Lab, Berkeley, CA 94720 USA.
12321 Observ Midi Pyrenees, Ctr Etud Spatiale Rayonnements, F-31028 Toulouse, France.
12322 Noqsi Aerosp Ltd, Pine, CO 80470 USA.
12323 Los Alamos Natl Lab, Los Alamos, NM 87545 USA.
12324 Espace Inc, Hull, MA 02045 USA.
12325 Japan Aerosp Explorat Agcy, Tsukuba Space Ctr, Tsukuba, Ibaraki 3058505, Japan.
12326 NASA, Goddard Space Flight Ctr, Greenbelt, MD 20771 USA.
12327 Natl Astron Observ, Tokyo 1818588, Japan.
12328 RIKEN, Wako, Saitama 3510198, Japan.
12329 Univ Calif Santa Cruz, Dept Astron & Astrophys, Santa Cruz, CA 95064 USA.
12330 Inst Nacl Pesquisas Espaciais, BR-12227010 Sao Jose Dos Campos, Brazil.
12331 Tata Inst Fundamental Res, Dept Astron & Astrophys, Bombay 400005, Maharashtra, India.
12332 INAF IASF Bologna, I-40129 Bologna, Italy.
12333 Miyazaki Univ, Fac Engn, Miyazaki 8892192, Japan.
12334 RP Ricker, GR, MIT, Kavli Inst, 70 Vassar St, Cambridge, MA 02139 USA.
12335 EM jsvilla@space.mit.edu
12336 grr@space.mit.edu
12337 NR 28
12338 TC 2
12339 PU NATURE PUBLISHING GROUP
12340 PI LONDON
12341 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12342 SN 0028-0836
12343 J9 NATURE
12344 JI Nature
12345 PD OCT 6
12346 PY 2005
12347 VL 437
12348 IS 7060
12349 BP 855
12350 EP 858
12351 PG 4
12352 SC Multidisciplinary Sciences
12353 GA 970VB
12354 UT ISI:000232338600039
12355 ER
12356
12357 PT J
12358 AU Hjorth, J
12359 Watson, D
12360 Fynbo, JPU
12361 Price, PA
12362 Jensen, BL
12363 Jorgensen, UG
12364 Kubas, D
12365 Gorosabel, J
12366 Jakobsson, P
12367 Sollerman, J
12368 Pedersen, K
12369 Kouveliotou, C
12370 TI The optical afterglow of the short gamma-ray burst GRB 050709
12371 SO NATURE
12372 LA English
12373 DT Article
12374 ID 28 FEBRUARY 1997; HOST GALAXIES; ERROR BOX; SUPERNOVA; PROGENITORS;
12375 CONSTRAINTS; DISCOVERY; PROSPECTS; SPECTRA; MODEL
12376 AB It has long been known that there are two classes(1) of gamma-ray
12377 bursts (GRBs), mainly distinguished by their durations. The
12378 breakthrough in our understanding of long-duration GRBs ( those lasting
12379 more than similar to 2 s), which ultimately linked them with energetic
12380 type Ic supernovae(2-4), came from the discovery of their long-lived
12381 X-ray(5) and optical(6,7) 'afterglows', when precise and rapid
12382 localizations of the sources could finally be obtained. X-ray
12383 localizations have recently become available(8,9) for short ( duration
12384 < 2 s) GRBs, which have evaded optical detection for more than 30
12385 years. Here we report the first discovery of transient optical emission
12386 (R-band magnitude similar to 23) associated with a short burst: GRB
12387 050709. The optical afterglow was localized with subarcsecond accuracy,
12388 and lies in the outskirts of a blue dwarf galaxy. The optical and
12389 X-ray(10) afterglow properties 34 h after the GRB are reminiscent of
12390 the afterglows of long GRBs, which are attributable to synchrotron
12391 emission from ultrarelativistic ejecta. We did not, however, detect a
12392 supernova, as found in most nearby long GRB afterglows, which suggests
12393 a different origin for the short GRBs.
12394 C1 Univ Copenhagen, Niels Bohr Inst, Dark Cosmol Ctr, DK-2100 Copenhagen, Denmark.
12395 Univ Hawaii, Inst Astron, Honolulu, HI 96822 USA.
12396 European So Observ, Santiago 19, Chile.
12397 CSIC, Inst Astrofis Andalucia, E-18080 Granada, Spain.
12398 Stockholm Univ, Dept Astron, S-10691 Stockholm, Sweden.
12399 NASA, George C Marshall Space Flight Ctr, Natl Space Sci Technol Ctr, Huntsville, AL 35805 USA.
12400 RP Hjorth, J, Univ Copenhagen, Niels Bohr Inst, Dark Cosmol Ctr, Juliane
12401 Maries Vej, DK-2100 Copenhagen, Denmark.
12402 EM jens@astro.ku.dk
12403 NR 26
12404 TC 2
12405 PU NATURE PUBLISHING GROUP
12406 PI LONDON
12407 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12408 SN 0028-0836
12409 J9 NATURE
12410 JI Nature
12411 PD OCT 6
12412 PY 2005
12413 VL 437
12414 IS 7060
12415 BP 859
12416 EP 861
12417 PG 3
12418 SC Multidisciplinary Sciences
12419 GA 970VB
12420 UT ISI:000232338600040
12421 ER
12422
12423 PT J
12424 AU Dreyfus, R
12425 Baudry, J
12426 Roper, ML
12427 Fermigier, M
12428 Stone, HA
12429 Bibette, J
12430 TI Microscopic artificial swimmers
12431 SO NATURE
12432 LA English
12433 DT Article
12434 ID LOW-REYNOLDS-NUMBER; ROD-LIKE CHAINS; DRIVEN MICROFILAMENTS; FRICTION
12435 COEFFICIENT; FILAMENTS; DYNAMICS; PROPULSION; SPHERES; FLUID
12436 AB Microorganisms such as bacteria and many eukaryotic cells propel
12437 themselves with hair-like structures known as flagella, which can
12438 exhibit a variety of structures and movement patterns(1). For example,
12439 bacterial flagella are helically shaped(2) and driven at their bases by
12440 a reversible rotary engine(3), which rotates the attached flagellum to
12441 give a motion similar to that of a corkscrew. In contrast, eukaryotic
12442 cells use flagella that resemble elastic rods(4) and exhibit a beating
12443 motion: internally generated stresses give rise to a series of bends
12444 that propagate towards the tip(5-7). In contrast to this variety of
12445 swimming strategies encountered in nature, a controlled swimming motion
12446 of artificial micrometre-sized structures has not yet been realized.
12447 Here we show that a linear chain of colloidal magnetic particles linked
12448 by DNA and attached to a red blood cell can act as a flexible
12449 artificial flagellum. The filament aligns with an external
12450 uniformmagnetic field and is readily actuated by oscillating a
12451 transverse field. We find that the actuation induces a beating pattern
12452 that propels the structure, and that the external fields can be
12453 adjusted to control the velocity and the direction of motion.
12454 C1 Univ Paris 06, ESPCI, CNRS,UMR 7612, Lab Colloides & Mat Div, F-75005 Paris, France.
12455 Harvard Univ, Div Engn & Appl Sci, Cambridge, MA 02138 USA.
12456 Ecole Super Phys & Chim Ind Ville Paris, CNRS, UMR 7636, Lab Phys & mecan Milieux Heterogenes, F-75005 Paris, France.
12457 RP Dreyfus, R, Univ Paris 06, ESPCI, CNRS,UMR 7612, Lab Colloides & Mat
12458 Div, 10 Rue Vauquelin, F-75005 Paris, France.
12459 EM remi.dreyfus@espci.fr
12460 NR 26
12461 TC 0
12462 PU NATURE PUBLISHING GROUP
12463 PI LONDON
12464 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12465 SN 0028-0836
12466 J9 NATURE
12467 JI Nature
12468 PD OCT 6
12469 PY 2005
12470 VL 437
12471 IS 7060
12472 BP 862
12473 EP 865
12474 PG 4
12475 SC Multidisciplinary Sciences
12476 GA 970VB
12477 UT ISI:000232338600041
12478 ER
12479
12480 PT J
12481 AU Brocks, JJ
12482 Love, GD
12483 Summons, RE
12484 Knoll, AH
12485 Logan, GA
12486 Bowden, SA
12487 TI Biomarker evidence for green and purple sulphur bacteria in a
12488 stratified Palaeoproterozoic sea
12489 SO NATURE
12490 LA English
12491 DT Article
12492 ID PROTEROZOIC OCEAN CHEMISTRY; MCARTHUR BASIN; NORTHERN AUSTRALIA;
12493 PETROLEUM GEOLOGY; GEOCHEMISTRY; SULFATE; PHOTOSYNTHESIS; SEDIMENTS;
12494 ANOXIA; ROCK
12495 AB The disappearance of iron formations from the geological record similar
12496 to 1.8 billion years (Gyr) ago was the consequence of rising oxygen
12497 levels in the atmosphere starting 2.45 - 2.32 Gyr ago(1-3). It marks
12498 the end of a 2.5-Gyr period dominated by anoxic and iron-rich deep
12499 oceans. However, despite rising oxygen levels and a concomitant
12500 increase in marine sulphate concentration, related to enhanced sulphide
12501 oxidation during continental weathering(4), the chemistry of the oceans
12502 in the following mid-Proterozoic interval (similar to 1.8 - 0.8 Gyr
12503 ago) probably did not yet resemble our oxygen-rich modern oceans.
12504 Recent data(5-8) indicate that marine oxygen and sulphate
12505 concentrations may have remained well below current levels during this
12506 period, with one model indicating that anoxic and sulphidic marine
12507 basins were widespread, and perhaps even globally distributed(4). Here
12508 we present hydrocarbon biomarkers ( molecular fossils) from a
12509 1.64-Gyr-old basin in northern Australia, revealing the ecological
12510 structure of mid-Proterozoic marine communities. The biomarkers signify
12511 a marine basin with anoxic, sulphidic, sulphate-poor and permanently
12512 stratified deep waters, hostile to eukaryotic algae. Phototrophic
12513 purple sulphur bacteria ( Chromatiaceae) were detected in the
12514 geological record based on the new carotenoid biomarker okenane, and
12515 they seem to have co-existed with communities of green sulphur bacteria
12516 ( Chlorobiaceae). Collectively, the biomarkers support mounting
12517 evidence for a long-lasting Proterozoic world in which oxygen levels
12518 remained well below modern levels.
12519 C1 Australian Natl Univ, Res Sch Earth Sci, Canberra, ACT 0200, Australia.
12520 MIT, Dept Earth Atmospher & Planetary Sci, Cambridge, MA 02139 USA.
12521 Macquarie Univ, Australian Ctr Astrobiol, Sydney, NSW 2109, Australia.
12522 Harvard Univ, Dept Organism & Evolutionary Biol, Cambridge, MA 02138 USA.
12523 Harvard Univ, Dept Earth & Planetary Sci, Cambridge, MA 02138 USA.
12524 Geosci Australia, Canberra, ACT 2601, Australia.
12525 Univ Aberdeen, Dept Geol & Petr Geol, Aberdeen AB24 3UE, Scotland.
12526 RP Brocks, JJ, Australian Natl Univ, Res Sch Earth Sci, Canberra, ACT
12527 0200, Australia.
12528 EM jochen.brocks@anu.edu.au
12529 NR 30
12530 TC 1
12531 PU NATURE PUBLISHING GROUP
12532 PI LONDON
12533 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12534 SN 0028-0836
12535 J9 NATURE
12536 JI Nature
12537 PD OCT 6
12538 PY 2005
12539 VL 437
12540 IS 7060
12541 BP 866
12542 EP 870
12543 PG 5
12544 SC Multidisciplinary Sciences
12545 GA 970VB
12546 UT ISI:000232338600042
12547 ER
12548
12549 PT J
12550 AU Johnson, PA
12551 Jiz, XP
12552 TI Nonlinear dynamics, granular media and dynamic earthquake triggering
12553 SO NATURE
12554 LA English
12555 DT Article
12556 ID SLOW DYNAMICS; STRESS-FIELD; DEFORMATIONS; SEISMICITY; CALIFORNIA;
12557 ELASTICITY; TRANSIENT; LANDERS; ZONE
12558 AB The 1992 magnitude 7.3 Landers earthquake triggered an exceptional
12559 number of additional earthquakes within California and as far north as
12560 Yellowstone and Montana(1-3). Since this observation, other large
12561 earthquakes have been shown to induce dynamic triggering at remote
12562 distances - for example, after the 1999 magnitude 7.1 Hector Mine(1)
12563 and the 2002 magnitude 7.9 Denali(4) earthquakes - and in the
12564 near-field as aftershocks(5). The physical origin of dynamic
12565 triggering, however, remains one of the least understood aspects of
12566 earthquake nucleation(1-5). The dynamic strain amplitudes from a large
12567 earthquake are exceedingly small once the waves have propagated more
12568 than several fault radii. For example, a strain wave amplitude of
12569 10(-6) and wavelength 1 m corresponds to a displacement amplitude of
12570 about 10(-7) m. Here we show that the dynamic, elastic-nonlinear
12571 behaviour of fault gouge perturbed by a seismic wave may trigger
12572 earthquakes, even with such small strains. We base our hypothesis on
12573 recent laboratory dynamic experiments conducted in granular media, a
12574 fault gouge surrogate(6,7). From these we infer that, if the fault is
12575 weak(8-10), seismic waves cause the fault core modulus to decrease
12576 abruptly and weaken further. If the fault is already near failure, this
12577 process could therefore induce fault slip.
12578 C1 Los Alamos Natl Lab, Geophys Grp EES11, Los Alamos, NM 87545 USA.
12579 Univ Marne la Vallee, CNRS, UMR 8108, Lab Phys Mat Divises & Interfaces, F-77454 Marne La Vallee, France.
12580 RP Johnson, PA, Los Alamos Natl Lab, Geophys Grp EES11, MS D443, Los
12581 Alamos, NM 87545 USA.
12582 EM paj@lanl.gov
12583 NR 28
12584 TC 1
12585 PU NATURE PUBLISHING GROUP
12586 PI LONDON
12587 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12588 SN 0028-0836
12589 J9 NATURE
12590 JI Nature
12591 PD OCT 6
12592 PY 2005
12593 VL 437
12594 IS 7060
12595 BP 871
12596 EP 874
12597 PG 4
12598 SC Multidisciplinary Sciences
12599 GA 970VB
12600 UT ISI:000232338600043
12601 ER
12602
12603 PT J
12604 AU Wang, XL
12605 Kellner, AWA
12606 Zhou, ZH
12607 Campos, DD
12608 TI Pterosaur diversity and faunal turnover in Cretaceous terrestrial
12609 ecosystems in China
12610 SO NATURE
12611 LA English
12612 DT Article
12613 ID INNER-MONGOLIA; BIOSTRATIGRAPHY
12614 AB New specimens and an analysis of the Jehol pterosaur faunae of
12615 northeastern China show an unexpected diversity of flying reptile
12616 groups in terrestrial Cretaceous ecosystems(1-4). Here we report two
12617 new pterosaurs that are referred to European groups previously unknown
12618 in deposits of northeastern China. Feilongus youngi, from the Yixian
12619 Formation(1,3), is closely related to the Gallodactylidae(5-6) and is
12620 distinguished by the presence of two independent sagittal crests and a
12621 protruding upper jaw. Nurhachius ignaciobritoi, from the Jiufotang
12622 Formation(2,3), has teeth formed by labiolingually compressed
12623 triangular crowns, only previously reported in Istiodactylus
12624 latidens(7) from England. With these new discoveries, the Jehol
12625 pterosaurs show a wide range of groups including both primitive and
12626 derived forms that are not matched by any other deposit in the world.
12627 The discoveries also document the turnover of pterosaur faunae, with
12628 the primitive Anurognathidae and early archaeopterodactyloids being
12629 replaced by derived pterodactyloids. Furthermore, these deposits offer
12630 an opportunity to examine the interaction and competition between birds
12631 and pterosaurs - it indicates that the avian fauna during the Lower
12632 Cretaceous ( and possibly most of the Mesozoic) dominated terrestrial,
12633 inland regions, whereas pterosaurs were more abundant in coastal areas.
12634 C1 Chinese Acad Sci, Inst Vertebrate Paleontol & Paleoanthropol, Beijing 100044, Peoples R China.
12635 Univ Fed Rio de Janeiro, Museu Nacl, Dept Geol & Paleontol, Paleovertebrate Sector, BR-20940040 Rio De Janeiro, Brazil.
12636 Museu Ciencias Terra, Dept Nacl Prod Mineral, BR-22290240 Rio De Janeiro, Brazil.
12637 RP Wang, XL, Chinese Acad Sci, Inst Vertebrate Paleontol & Paleoanthropol,
12638 POB 643, Beijing 100044, Peoples R China.
12639 EM xlinwang@263.net
12640 kellner@acd.ufrj.br
12641 NR 30
12642 TC 0
12643 PU NATURE PUBLISHING GROUP
12644 PI LONDON
12645 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12646 SN 0028-0836
12647 J9 NATURE
12648 JI Nature
12649 PD OCT 6
12650 PY 2005
12651 VL 437
12652 IS 7060
12653 BP 875
12654 EP 879
12655 PG 5
12656 SC Multidisciplinary Sciences
12657 GA 970VB
12658 UT ISI:000232338600044
12659 ER
12660
12661 PT J
12662 AU Knight, TM
12663 McCoy, MW
12664 Chase, JM
12665 McCoy, KA
12666 Holt, RD
12667 TI Trophic cascades across ecosystems
12668 SO NATURE
12669 LA English
12670 DT Article
12671 ID FOOD WEBS; PREDATOR; TERRESTRIAL; VISITATION; DIVERSITY; SUBSIDIES;
12672 ECOLOGY; PREY
12673 AB Predation can be intense, creating strong direct and indirect effects
12674 throughout food webs(1-4). In addition, ecologists increasingly
12675 recognize that fluxes of organisms across ecosystem boundaries can have
12676 major consequences for community dynamics(5,6). Species with complex
12677 life histories often shift habitats during their life cycles(7) and
12678 provide potent conduits coupling ecosystems(5,6). Thus, local
12679 interactions that affect predator abundance in one ecosystem ( for
12680 example a larval habitat) may have reverberating effects in another (
12681 for example an adult habitat). Here we show that fish indirectly
12682 facilitate terrestrial plant reproduction through cascading trophic
12683 interactions across ecosystem boundaries. Fish reduce larval dragonfly
12684 abundances in ponds, leading to fewer adult dragonflies nearby. Adult
12685 dragonflies consume insect pollinators and alter their foraging
12686 behaviour. As a result, plants near ponds with fish receive more
12687 pollinator visits and are less pollen limited than plants near
12688 fish-free ponds. Our results confirm that strong species interactions
12689 can reverberate across ecosystems, and emphasize the importance of
12690 landscape-level processes in driving local species interactions.
12691 C1 Univ Florida, Dept Zool, Gainesville, FL 32611 USA.
12692 Washington Univ, Dept Biol, St Louis, MO 63130 USA.
12693 RP Knight, TM, Univ Florida, Dept Zool, Gainesville, FL 32611 USA.
12694 EM tknight@biology2.wustl.edu
12695 NR 28
12696 TC 0
12697 PU NATURE PUBLISHING GROUP
12698 PI LONDON
12699 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12700 SN 0028-0836
12701 J9 NATURE
12702 JI Nature
12703 PD OCT 6
12704 PY 2005
12705 VL 437
12706 IS 7060
12707 BP 880
12708 EP 883
12709 PG 4
12710 SC Multidisciplinary Sciences
12711 GA 970VB
12712 UT ISI:000232338600045
12713 ER
12714
12715 PT J
12716 AU Partida-Martinez, LP
12717 Hertweck, C
12718 TI Pathogenic fungus harbours endosymbiotic bacteria for toxin production
12719 SO NATURE
12720 LA English
12721 DT Article
12722 ID MACROCYCLIC LACTONE ANTIBIOTICS; POLYKETIDE SYNTHASES;
12723 RHIZOPUS-CHINENSIS; GENE-CLUSTER; RHIZOXIN; BIOSYNTHESIS; SYMBIONT;
12724 BURKHOLDERIA; METABOLITE; AGENTS
12725 AB A number of plant pathogenic fungi belonging to the genus Rhizopus are
12726 infamous for causing rice seedling blight. This plant disease is
12727 typically initiated by an abnormal swelling of the seedling roots
12728 without any sign of infection by the pathogen(1-4). This characteristic
12729 symptom is in fact caused by the macrocyclic polyketide metabolite
12730 rhizoxin that has been isolated from cultures of Rhizopus sp.(5,6). The
12731 phytotoxin exerts its destructive effect by binding to rice
12732 beta-tubulin, which results in inhibition of mitosis and cell cycle
12733 arrest(7,8). Owing to its remarkably strong antimitotic activity in
12734 most eukaryotic cells, including various human cancer cell lines,
12735 rhizoxin has attracted considerable interest as a potential antitumour
12736 drug(9,10). Here we show that rhizoxin is not biosynthesized by the
12737 fungus itself, but by endosymbiotic, that is, intracellular living,
12738 bacteria of the genus Burkholderia. Our unexpected findings unveil a
12739 remarkably complex symbiotic-pathogenic relationship that extends the
12740 fungus - plant interaction to a third, bacterial, key-player, and opens
12741 new perspectives for pest control.
12742 C1 HKI, Leibniz Inst Nat Prod Res & Infect Biol, D-07745 Jena, Germany.
12743 RP Hertweck, C, HKI, Leibniz Inst Nat Prod Res & Infect Biol,
12744 Beutenbergstr 11a, D-07745 Jena, Germany.
12745 EM Christian.Hertweck@hki-jena.de
12746 NR 28
12747 TC 1
12748 PU NATURE PUBLISHING GROUP
12749 PI LONDON
12750 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12751 SN 0028-0836
12752 J9 NATURE
12753 JI Nature
12754 PD OCT 6
12755 PY 2005
12756 VL 437
12757 IS 7060
12758 BP 884
12759 EP 888
12760 PG 5
12761 SC Multidisciplinary Sciences
12762 GA 970VB
12763 UT ISI:000232338600046
12764 ER
12765
12766 PT J
12767 AU Taubenberger, JK
12768 Reid, AH
12769 Lourens, RM
12770 Wang, RX
12771 Jin, GZ
12772 Fanning, TG
12773 TI Characterization of the 1918 influenza virus polymerase genes
12774 SO NATURE
12775 LA English
12776 DT Article
12777 ID A VIRUS; PANDEMIC INFLUENZA; RNA-POLYMERASE; AMINO-ACID; HEMAGGLUTININ;
12778 PROTEIN; ORIGIN; PATHOGENICITY; SEGMENT; SITES
12779 AB The influenza A viral heterotrimeric polymerase complex (PA, PB1, PB2)
12780 is known to be involved in many aspects of viral replication and to
12781 interact with host factors(1), thereby having a role in host
12782 specificity(2,3). The polymerase protein sequences from the 1918 human
12783 influenza virus differ from avian consensus sequences at only a small
12784 number of amino acids, consistent with the hypothesis that they were
12785 derived from an avian source shortly before the pandemic. However, when
12786 compared to avian sequences, the nucleotide sequences of the 1918
12787 polymerase genes have more synonymous differences than expected,
12788 suggesting evolutionary distance from known avian strains. Here we
12789 present sequence and phylogenetic analyses of the complete genome of
12790 the 1918 influenza virus(4-8), and propose that the 1918 virus was not
12791 a reassortant virus ( like those of the 1957 and 1968 pandemics(9,10)),
12792 but more likely an entirely avian-like virus that adapted to humans.
12793 These data support prior phylogenetic studies suggesting that the 1918
12794 virus was derived from an avian source(11). A total of ten amino acid
12795 changes in the polymerase proteins consistently differentiate the 1918
12796 and subsequent human influenza virus sequences from avian virus
12797 sequences. Notably, a number of the same changes have been found in
12798 recently circulating, highly pathogenic H5N1 viruses that have caused
12799 illness and death in humans and are feared to be the precursors of a
12800 new influenza pandemic. The sequence changes identified here may be
12801 important in the adaptation of influenza viruses to humans.
12802 C1 Armed Forces Inst Pathol, Dept Mol Pathol, Rockville, MD 20850 USA.
12803 RP Taubenberger, JK, Armed Forces Inst Pathol, Dept Mol Pathol, Rockville,
12804 MD 20850 USA.
12805 EM taubenberger@afip.osd.mil
12806 NR 30
12807 TC 3
12808 PU NATURE PUBLISHING GROUP
12809 PI LONDON
12810 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12811 SN 0028-0836
12812 J9 NATURE
12813 JI Nature
12814 PD OCT 6
12815 PY 2005
12816 VL 437
12817 IS 7060
12818 BP 889
12819 EP 893
12820 PG 5
12821 SC Multidisciplinary Sciences
12822 GA 970VB
12823 UT ISI:000232338600047
12824 ER
12825
12826 PT J
12827 AU Ahn, S
12828 Joyner, AL
12829 TI In vivo analysis of quiescent adult neural stem cells responding to
12830 Sonic hedgehog
12831 SO NATURE
12832 LA English
12833 DT Article
12834 ID MAMMALIAN BRAIN; PROGENITOR PROLIFERATION; SUBVENTRICULAR ZONE; DENTATE
12835 GYRUS; HIPPOCAMPUS; PRECURSORS; NEURONS; NEUROGENESIS; REGENERATION;
12836 ASTROCYTES
12837 AB Sonic hedgehog (Shh) has been implicated in the ongoing neurogenesis in
12838 postnatal rodent brains(1,2). Here we adopted an in vivo genetic
12839 fate-mapping strategy, using Gli1 (GLI-Kruppel family member) as a
12840 sensitive readout of Shh activity, to systematically mark and follow
12841 the fate of Shh-responding cells in the adult mouse forebrain. We show
12842 that initially, only a small population of cells ( including both
12843 quiescent neural stem cells and transit-amplifying cells) responds to
12844 Shh in regions undergoing neurogenesis. This population subsequently
12845 expands markedly to continuously provide new neurons in the forebrain.
12846 Our study of the behaviour of quiescent neural stem cells provides in
12847 vivo evidence that they can self-renew for over a year and generate
12848 multiple cell types. Furthermore, we show that the neural stem cell
12849 niches in the subventricular zone and dentate gyrus are established
12850 sequentially and not until late embryonic stages.
12851 C1 NYU, Sch Med, Howard Hughes Med Inst, Dev Genet Program,Skirball Inst Biomol Med, New York, NY 10016 USA.
12852 NYU, Sch Med, Dept Cell Biol, New York, NY 10016 USA.
12853 NYU, Sch Med, Dept Physiol & Neurosci, New York, NY 10016 USA.
12854 RP Joyner, AL, NICHHD, Unit Dev Neurogenet, Lab Mammalian Genes & Dev,
12855 NIH, 9000 Rockville Pike,Bldg 6B, Bethesda, MD 20892 USA.
12856 EM joyner@saturn.med.nyu.edu
12857 NR 27
12858 TC 0
12859 PU NATURE PUBLISHING GROUP
12860 PI LONDON
12861 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12862 SN 0028-0836
12863 J9 NATURE
12864 JI Nature
12865 PD OCT 6
12866 PY 2005
12867 VL 437
12868 IS 7060
12869 BP 894
12870 EP 897
12871 PG 4
12872 SC Multidisciplinary Sciences
12873 GA 970VB
12874 UT ISI:000232338600048
12875 ER
12876
12877 PT J
12878 AU Kimoto, H
12879 Haga, S
12880 Sato, K
12881 Touhara, K
12882 TI Sex-specific peptides from exocrine glands stimulate mouse vomeronasal
12883 sensory neurons
12884 SO NATURE
12885 LA English
12886 DT Article
12887 ID PUTATIVE PHEROMONE RECEPTORS; ACCESSORY OLFACTORY-BULB; MULTIGENE
12888 FAMILY; MUTANT MICE; MAMMALS; BEHAVIOR; SYSTEM; GENES; ORGAN; AGGRESSION
12889 AB In mammals, social and reproductive behaviours are modulated by
12890 pheromones, which are chemical signals that convey information about
12891 sex and strain(1,2). The vomeronasal organ, located at the base of the
12892 nasal septum, is responsible for mediating pheromone information in
12893 mice(3-9). Two classes of putative pheromone receptor gene families,
12894 V1R and V2R, are expressed by vomeronasal sensory neurons in mutually
12895 segregated epithelial zones of the vomeronasal organ(10-14). Although
12896 numerous studies have suggested that pheromones originate from
12897 urine(15-18), direct recordings of behaving mice have shown that
12898 neuronal firing in the vomeronasal system is modulated by physical
12899 contact with the facial area(19). Here we identify a male-specific
12900 7-kDa peptide secreted from the extraorbital lacrimal gland. This
12901 peptide, which we named exocrine gland-secreting peptide 1 (ESP1), is
12902 encoded by a gene from a previously unrecognized large family clustered
12903 in proximity to the class I major histocompatibility complex (MHC)
12904 region. ESP1 is secreted from the eyes and is transferred to the female
12905 vomeronasal organ, where it stimulates V2R-expressing vomeronasal
12906 sensory neurons and elicits an electrical response. Our results
12907 indicate that mice respond to sex-specific peptides released from
12908 exocrine glands through the vomeronasal system during direct contact.
12909 C1 Univ Tokyo, Grad Sch Frontier Sci, Dept Integrated Biosci, Chiba 2778562, Japan.
12910 RP Touhara, K, Univ Tokyo, Grad Sch Frontier Sci, Dept Integrated Biosci,
12911 Chiba 2778562, Japan.
12912 EM touhara@k.u-tokyo.ac.jp
12913 NR 29
12914 TC 1
12915 PU NATURE PUBLISHING GROUP
12916 PI LONDON
12917 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12918 SN 0028-0836
12919 J9 NATURE
12920 JI Nature
12921 PD OCT 6
12922 PY 2005
12923 VL 437
12924 IS 7060
12925 BP 898
12926 EP 901
12927 PG 4
12928 SC Multidisciplinary Sciences
12929 GA 970VB
12930 UT ISI:000232338600049
12931 ER
12932
12933 PT J
12934 AU Zhang, SYL
12935 Yu, Y
12936 Roos, J
12937 Kozak, JA
12938 Deerinck, TJ
12939 Ellisman, MH
12940 Stauderman, KA
12941 Cahalan, MD
12942 TI STIM1 is a Ca2+ sensor that activates CRAC channels and migrates from
12943 the Ca2+ store to the plasma membrane
12944 SO NATURE
12945 LA English
12946 DT Article
12947 ID OPERATED CALCIUM-CHANNELS; T-LYMPHOCYTES; DEPLETION; INFLUX; CELLS;
12948 OSCILLATIONS; INHIBITION; MECHANISMS; FAMILY
12949 AB As the sole Ca2+ entry mechanism in a variety of non-excitable cells,
12950 store-operated calcium (SOC) influx is important in Ca2+ signalling and
12951 many other cellular processes(1-3). A calcium-release-activated calcium
12952 ( CRAC) channel in T lymphocytes is the best-characterized SOC influx
12953 channel(4-6) and is essential to the immune response, sustained
12954 activity of CRAC channels being required for gene expression and
12955 proliferation(7-10). The molecular identity and the gating mechanism of
12956 SOC and CRAC channels have remained elusive. Previously we identified
12957 Stim and the mammalian homologue STIM1 as essential components of CRAC
12958 channel activation in Drosophila S2 cells and human T lymphocytes(11).
12959 Here we show that the expression of EF-hand mutants of Stim or STIM1
12960 activates CRAC channels constitutively without changing Ca2+ store
12961 content. By immunofluorescence, EM localization and surface
12962 biotinylation we show that STIM1 migrates from
12963 endoplasmic-reticulum-like sites to the plasma membrane upon depletion
12964 of the Ca2+ store. We propose that STIM1 functions as the missing link
12965 between Ca2+ store depletion and SOC influx, serving as a Ca2+ sensor
12966 that translocates upon store depletion to the plasma membrane to
12967 activate CRAC channels.
12968 C1 Univ Calif Irvine, Dept Physiol & Biophys, Irvine, CA 92697 USA.
12969 Univ Calif Irvine, Ctr Immunol, Irvine, CA 92697 USA.
12970 TorreyPines Therapeut Inc, La Jolla, CA 92037 USA.
12971 Univ Calif San Diego, Dept Neurosci, La Jolla, CA 92093 USA.
12972 Univ Calif San Diego, Natl Ctr Microscopy & Imaging Res, Ctr Res Biol Struct, La Jolla, CA 92093 USA.
12973 RP Cahalan, MD, Univ Calif Irvine, Dept Physiol & Biophys, Irvine, CA
12974 92697 USA.
12975 EM mcahalan@uci.edu
12976 NR 25
12977 TC 0
12978 PU NATURE PUBLISHING GROUP
12979 PI LONDON
12980 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
12981 SN 0028-0836
12982 J9 NATURE
12983 JI Nature
12984 PD OCT 6
12985 PY 2005
12986 VL 437
12987 IS 7060
12988 BP 902
12989 EP 905
12990 PG 4
12991 SC Multidisciplinary Sciences
12992 GA 970VB
12993 UT ISI:000232338600050
12994 ER
12995
12996 PT J
12997 AU van den Elzen, P
12998 Garg, S
12999 Leon, L
13000 Brigl, M
13001 Leadbetter, EA
13002 Gumperz, JE
13003 Dascher, CC
13004 Cheng, TY
13005 Sacks, FM
13006 Illarionov, PA
13007 Besra, GS
13008 Kent, SC
13009 Moody, DB
13010 Brenner, MB
13011 TI Apolipoprotein-mediated pathways of lipid antigen presentation
13012 SO NATURE
13013 LA English
13014 DT Article
13015 ID TRANSPORT PROTEIN; GENE-EXPRESSION; DENDRITIC CELLS; LYMPHOCYTES-T; NKT
13016 CELLS; RECEPTOR; LIPOPROTEINS; ATHEROSCLEROSIS; MACROPHAGES; METABOLISM
13017 AB Peptide antigens are presented to T cells by major histocompatibility
13018 complex (MHC) molecules, with endogenous peptides presented by MHC
13019 class I and exogenous peptides presented by MHC class II. In contrast
13020 to the MHC system, CD1 molecules bind lipid antigens that are presented
13021 at the antigen-presenting cell (APC) surface to lipid antigen-reactive
13022 T cells(1). Because CD1 molecules survey endocytic compartments(2), it
13023 is self-evident that they encounter antigens from extracellular
13024 sources. However, the mechanisms of exogenous lipid antigen delivery to
13025 CD1-antigen-loading compartments are not known. Serum apolipoproteins
13026 are mediators of extracellular lipid transport for metabolic needs(3).
13027 Here we define the pathways mediating markedly efficient exogenous
13028 lipid antigen delivery by apolipoproteins to achieve T-cell activation.
13029 Apolipoprotein E binds lipid antigens and delivers them by
13030 receptor-mediated uptake into endosomal compartments containing CD1 in
13031 APCs. Apolipoprotein E mediates the presentation of serum-borne lipid
13032 antigens and can be secreted by APCs as a mechanism to survey the local
13033 environment to capture antigens or to transfer microbial lipids from
13034 infected cells to bystander APCs. Thus, the immune system has co-opted
13035 a component of lipid metabolism to develop immunological responses to
13036 lipid antigens.
13037 C1 Harvard Univ, Sch Med, Dept Pathol, Boston, MA 02115 USA.
13038 Harvard Univ, Sch Med, Dept Med, Div Rheumatol Allergy & Immunol, Boston, MA 02115 USA.
13039 Harvard Univ, Sch Med, Brigham & Womens Hosp, Ctr Neurol Dis, Boston, MA 02115 USA.
13040 Harvard Univ, Sch Publ Hlth, Dept Nutr, Boston, MA 02115 USA.
13041 Univ Birmingham, Sch Biosci, Birmingham B15 2TT, W Midlands, England.
13042 RP Brenner, MB, Harvard Univ, Sch Med, Dept Pathol, Boston, MA 02115 USA.
13043 EM mbrenner@rics.bwh.harvard.edu
13044 NR 29
13045 TC 0
13046 PU NATURE PUBLISHING GROUP
13047 PI LONDON
13048 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13049 SN 0028-0836
13050 J9 NATURE
13051 JI Nature
13052 PD OCT 6
13053 PY 2005
13054 VL 437
13055 IS 7060
13056 BP 906
13057 EP 910
13058 PG 5
13059 SC Multidisciplinary Sciences
13060 GA 970VB
13061 UT ISI:000232338600051
13062 ER
13063
13064 PT J
13065 AU Akeda, Y
13066 Galan, JE
13067 TI Chaperone release and unfolding of substrates in type III secretion
13068 SO NATURE
13069 LA English
13070 DT Article
13071 ID SALMONELLA-TYPHIMURIUM; ESCHERICHIA-COLI; F0F1 ATPASE; HOST-CELLS;
13072 PROTEINS; DOMAINS; OLIGOMERIZATION; RECOGNITION; PHOSPHATASE; PATHOGENS
13073 AB Type III protein secretion systems are essential virulence factors of
13074 many bacteria pathogenic to humans, animals and plants(1). These
13075 systems mediate the transfer of bacterial virulence proteins directly
13076 into the host cell cytoplasm. Proteins are thought to travel this
13077 pathway in a largely unfolded manner, and a family of customized
13078 cytoplasmic chaperones, which specifically bind cognate secreted
13079 proteins, are essential for secretion. Here we show that InvC, an
13080 ATPase associated with a Salmonella enterica type III secretion
13081 system(2), has a critical function in substrate recognition.
13082 Furthermore, InvC induces chaperone release from and unfolding of the
13083 cognate secreted protein in an ATP-dependent manner. Our results show a
13084 similarity between the mechanisms of substrate recognition by type III
13085 protein secretion systems and AAA+ ATPase disassembly machines.
13086 C1 Yale Univ, Sch Med, Sect Microbial Pathogenesis, New Haven, CT 06536 USA.
13087 RP Galan, JE, Yale Univ, Sch Med, Sect Microbial Pathogenesis, 333 Cedar
13088 St, New Haven, CT 06536 USA.
13089 EM jorge.galan@yale.edu
13090 NR 30
13091 TC 1
13092 PU NATURE PUBLISHING GROUP
13093 PI LONDON
13094 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13095 SN 0028-0836
13096 J9 NATURE
13097 JI Nature
13098 PD OCT 6
13099 PY 2005
13100 VL 437
13101 IS 7060
13102 BP 911
13103 EP 915
13104 PG 5
13105 SC Multidisciplinary Sciences
13106 GA 970VB
13107 UT ISI:000232338600052
13108 ER
13109
13110 PT J
13111 AU Sowa, Y
13112 Rowe, AD
13113 Leake, MC
13114 Yakushi, T
13115 Homma, M
13116 Ishijima, A
13117 Berry, RM
13118 TI Direct observation of steps in rotation of the bacterial flagellar motor
13119 SO NATURE
13120 LA English
13121 DT Article
13122 ID TORQUE-GENERATING UNITS; ESCHERICHIA-COLI; ROTARY MOTOR; NA+-DRIVEN;
13123 VIBRIO-ALGINOLYTICUS; PROTONMOTIVE FORCE; F-1-ATPASE; MECHANISM; SPEED;
13124 ROTOR
13125 AB The bacterial flagellar motor is a rotary molecular machine that
13126 rotates the helical filaments that propel many species of swimming
13127 bacteria(1,2). The rotor is a set of rings up to 45 nm in diameter in
13128 the cytoplasmic membrane(3); the stator contains about ten
13129 torque-generating units anchored to the cell wall at the perimeter of
13130 the rotor(4,5). The free-energy source for the motor is an
13131 inward-directed electrochemical gradient of ions across the cytoplasmic
13132 membrane, the protonmotive force or sodium-motive force for H+-driven
13133 and Na+-driven motors, respectively. Here we demonstrate a stepping
13134 motion of a Na+-driven chimaeric flagellar motor in Escherichia coli(6)
13135 at low sodium-motive force and with controlled expression of a small
13136 number of torque-generating units. We observe 26 steps per revolution,
13137 which is consistent with the periodicity of the ring of FliG protein,
13138 the proposed site of torque generation on the rotor(7,8). Backwards
13139 steps despite the absence of the flagellar switching protein CheY
13140 indicate a small change in free energy per step, similar to that of a
13141 single ion transit.
13142 C1 Nagoya Univ, Grad Sch Engn, Dept Appl Phys, Chikusa Ku, Aichi 4648603, Japan.
13143 Univ Oxford, Dept Phys, Clarendon Lab, Oxford OX1 3PU, England.
13144 Nagoya Univ, Grad Sch Sci, Div Biol Sci, Chikusa Ku, Aichi 4648602, Japan.
13145 JST, PRESTO, Kawagoe, Saitama 3320012, Japan.
13146 RP Berry, RM, Nagoya Univ, Grad Sch Engn, Dept Appl Phys, Chikusa Ku,
13147 Aichi 4648603, Japan.
13148 EM r.berry1@physics.ox.ac.uk
13149 NR 30
13150 TC 0
13151 PU NATURE PUBLISHING GROUP
13152 PI LONDON
13153 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13154 SN 0028-0836
13155 J9 NATURE
13156 JI Nature
13157 PD OCT 6
13158 PY 2005
13159 VL 437
13160 IS 7060
13161 BP 916
13162 EP 919
13163 PG 4
13164 SC Multidisciplinary Sciences
13165 GA 970VB
13166 UT ISI:000232338600053
13167 ER
13168
13169 PT J
13170 AU Wingert, RA
13171 Galloway, JL
13172 Barut, B
13173 Foott, H
13174 Fraenkel, P
13175 Axe, JL
13176 Weber, GJ
13177 Dooley, K
13178 Davidson, AJ
13179 Schmid, B
13180 Paw, BH
13181 Shaw, GC
13182 Kingsley, P
13183 Palis, J
13184 Schubert, H
13185 Chen, O
13186 Kaplan, J
13187 Zon, LI
13188 CA Tubingen 2000 Screen Consortium
13189 TI Deficiency of glutaredoxin 5 reveals Fe-S clusters are required for
13190 vertebrate haem synthesis (vol 436, pg 1035, 2005)
13191 SO NATURE
13192 LA English
13193 DT Correction
13194 C1 Adolf Butenandt Inst, Dept Biochem, D-80336 Munich, Germany.
13195 NR 1
13196 TC 0
13197 PU NATURE PUBLISHING GROUP
13198 PI LONDON
13199 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13200 SN 0028-0836
13201 J9 NATURE
13202 JI Nature
13203 PD OCT 6
13204 PY 2005
13205 VL 437
13206 IS 7060
13207 BP 920
13208 EP 920
13209 PG 1
13210 SC Multidisciplinary Sciences
13211 GA 970VB
13212 UT ISI:000232338600054
13213 ER
13214
13215 PT J
13216 AU Cramer, K
13217 TI Sandcastles: a dystopia - Caught up in a storm.
13218 SO NATURE
13219 LA English
13220 DT Editorial Material
13221 NR 0
13222 TC 0
13223 PU NATURE PUBLISHING GROUP
13224 PI LONDON
13225 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13226 SN 0028-0836
13227 J9 NATURE
13228 JI Nature
13229 PD OCT 6
13230 PY 2005
13231 VL 437
13232 IS 7060
13233 BP 926
13234 EP 926
13235 PG 1
13236 SC Multidisciplinary Sciences
13237 GA 970VB
13238 UT ISI:000232338600055
13239 ER
13240
13241 PT J
13242 AU [Anon]
13243 TI Bridging the gulf
13244 SO NATURE
13245 LA English
13246 DT Editorial Material
13247 NR 1
13248 TC 0
13249 PU NATURE PUBLISHING GROUP
13250 PI LONDON
13251 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13252 SN 0028-0836
13253 J9 NATURE
13254 JI Nature
13255 PD SEP 29
13256 PY 2005
13257 VL 437
13258 IS 7059
13259 BP 595
13260 EP 595
13261 PG 1
13262 SC Multidisciplinary Sciences
13263 GA 968JD
13264 UT ISI:000232157900001
13265 ER
13266
13267 PT J
13268 AU [Anon]
13269 TI A missed opportunity?
13270 SO NATURE
13271 LA English
13272 DT Editorial Material
13273 NR 0
13274 TC 0
13275 PU NATURE PUBLISHING GROUP
13276 PI LONDON
13277 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13278 SN 0028-0836
13279 J9 NATURE
13280 JI Nature
13281 PD SEP 29
13282 PY 2005
13283 VL 437
13284 IS 7059
13285 BP 595
13286 EP 596
13287 PG 2
13288 SC Multidisciplinary Sciences
13289 GA 968JD
13290 UT ISI:000232157900002
13291 ER
13292
13293 PT J
13294 AU [Anon]
13295 TI Do or die for design
13296 SO NATURE
13297 LA English
13298 DT Editorial Material
13299 NR 1
13300 TC 0
13301 PU NATURE PUBLISHING GROUP
13302 PI LONDON
13303 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13304 SN 0028-0836
13305 J9 NATURE
13306 JI Nature
13307 PD SEP 29
13308 PY 2005
13309 VL 437
13310 IS 7059
13311 BP 596
13312 EP 596
13313 PG 1
13314 SC Multidisciplinary Sciences
13315 GA 968JD
13316 UT ISI:000232157900003
13317 ER
13318
13319 PT J
13320 AU Dalton, R
13321 TI Scientists unite in bid to drive policy
13322 SO NATURE
13323 LA English
13324 DT News Item
13325 NR 0
13326 TC 0
13327 PU NATURE PUBLISHING GROUP
13328 PI LONDON
13329 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13330 SN 0028-0836
13331 J9 NATURE
13332 JI Nature
13333 PD SEP 29
13334 PY 2005
13335 VL 437
13336 IS 7059
13337 BP 600
13338 EP 600
13339 PG 1
13340 SC Multidisciplinary Sciences
13341 GA 968JD
13342 UT ISI:000232157900004
13343 ER
13344
13345 PT J
13346 AU Marris, E
13347 TI Use of NIH funds placed under a spotlight
13348 SO NATURE
13349 LA English
13350 DT News Item
13351 NR 0
13352 TC 0
13353 PU NATURE PUBLISHING GROUP
13354 PI LONDON
13355 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13356 SN 0028-0836
13357 J9 NATURE
13358 JI Nature
13359 PD SEP 29
13360 PY 2005
13361 VL 437
13362 IS 7059
13363 BP 601
13364 EP 601
13365 PG 1
13366 SC Multidisciplinary Sciences
13367 GA 968JD
13368 UT ISI:000232157900005
13369 ER
13370
13371 PT J
13372 AU Check, E
13373 TI Pioneering HIV treatment would use interference and gene therapy
13374 SO NATURE
13375 LA English
13376 DT News Item
13377 AB Scientists have unveiled plans to test an HIV treatment based on a
13378 much-toutedtechnique that hasn't yet been tried on people. The
13379 treatment is based on a mechanism called RNA interference. Scientists
13380 and the biotechnology industry believe the interference pathway is a
13381 tremendously promising target for a variety of therapies.
13382 NR 1
13383 TC 0
13384 PU NATURE PUBLISHING GROUP
13385 PI LONDON
13386 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13387 SN 0028-0836
13388 J9 NATURE
13389 JI Nature
13390 PD SEP 29
13391 PY 2005
13392 VL 437
13393 IS 7059
13394 BP 601
13395 EP 601
13396 PG 1
13397 SC Multidisciplinary Sciences
13398 GA 968JD
13399 UT ISI:000232157900006
13400 ER
13401
13402 PT J
13403 AU [Anon]
13404 TI Snapshot - Judges fall for a leaf's star quality
13405 SO NATURE
13406 LA English
13407 DT News Item
13408 AB These are not orange starfish on the sea floor but tiny hairs on the
13409 undersideof a plant's leaf. Known as trichomes, the hairs help the leaf
13410 to fend off the attentions of hungry insects and parasites. This image,
13411 taken using a scanning electron microscope.
13412 NR 0
13413 TC 0
13414 PU NATURE PUBLISHING GROUP
13415 PI LONDON
13416 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13417 SN 0028-0836
13418 J9 NATURE
13419 JI Nature
13420 PD SEP 29
13421 PY 2005
13422 VL 437
13423 IS 7059
13424 BP 602
13425 EP 602
13426 PG 1
13427 SC Multidisciplinary Sciences
13428 GA 968JD
13429 UT ISI:000232157900007
13430 ER
13431
13432 PT J
13433 AU Schiermeier, Q
13434 TI Europe tells Russia it faces HIV ruin
13435 SO NATURE
13436 LA English
13437 DT News Item
13438 AB Health experts from Europe and the United States have called on the
13439 Russian government to strengthen its fight against the country's
13440 dramatically worsening HIV and AIDS problem. The epidemic there is set
13441 to explode, posing a serious threat to the former superpower's social
13442 and economic welfare, and even its stability.
13443 NR 0
13444 TC 0
13445 PU NATURE PUBLISHING GROUP
13446 PI LONDON
13447 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13448 SN 0028-0836
13449 J9 NATURE
13450 JI Nature
13451 PD SEP 29
13452 PY 2005
13453 VL 437
13454 IS 7059
13455 BP 602
13456 EP 602
13457 PG 1
13458 SC Multidisciplinary Sciences
13459 GA 968JD
13460 UT ISI:000232157900008
13461 ER
13462
13463 PT J
13464 AU Schiermeier, Q
13465 TI Political deadlock leaves scientists frustrated
13466 SO NATURE
13467 LA English
13468 DT News Item
13469 AB The political deadlock over the formation of the German Government has
13470 left scientists with little hope for more flexible regulations on
13471 stem-cell and biotechnology research.
13472 NR 1
13473 TC 0
13474 PU NATURE PUBLISHING GROUP
13475 PI LONDON
13476 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13477 SN 0028-0836
13478 J9 NATURE
13479 JI Nature
13480 PD SEP 29
13481 PY 2005
13482 VL 437
13483 IS 7059
13484 BP 603
13485 EP 603
13486 PG 1
13487 SC Multidisciplinary Sciences
13488 GA 968JD
13489 UT ISI:000232157900009
13490 ER
13491
13492 PT J
13493 AU Reichhardt, T
13494 TI Science comes second as NASA makes lunar plans
13495 SO NATURE
13496 LA English
13497 DT News Item
13498 NR 0
13499 TC 0
13500 PU NATURE PUBLISHING GROUP
13501 PI LONDON
13502 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13503 SN 0028-0836
13504 J9 NATURE
13505 JI Nature
13506 PD SEP 29
13507 PY 2005
13508 VL 437
13509 IS 7059
13510 BP 605
13511 EP 605
13512 PG 1
13513 SC Multidisciplinary Sciences
13514 GA 968JD
13515 UT ISI:000232157900010
13516 ER
13517
13518 PT J
13519 AU Wadman, M
13520 TI Cancer chief embraces top drugs job
13521 SO NATURE
13522 LA English
13523 DT News Item
13524 NR 3
13525 TC 0
13526 PU NATURE PUBLISHING GROUP
13527 PI LONDON
13528 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13529 SN 0028-0836
13530 J9 NATURE
13531 JI Nature
13532 PD SEP 29
13533 PY 2005
13534 VL 437
13535 IS 7059
13536 BP 606
13537 EP 606
13538 PG 1
13539 SC Multidisciplinary Sciences
13540 GA 968JD
13541 UT ISI:000232157900011
13542 ER
13543
13544 PT J
13545 AU Schrope, M
13546 TI Into the eye of the storm
13547 SO NATURE
13548 LA English
13549 DT News Item
13550 AB The National Oceanic and Atmospheric Administration conducts
13551 reconnaissance flights to gather data on Hurricane Rita.
13552 NR 0
13553 TC 0
13554 PU NATURE PUBLISHING GROUP
13555 PI LONDON
13556 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13557 SN 0028-0836
13558 J9 NATURE
13559 JI Nature
13560 PD SEP 29
13561 PY 2005
13562 VL 437
13563 IS 7059
13564 BP 607
13565 EP 607
13566 PG 1
13567 SC Multidisciplinary Sciences
13568 GA 968JD
13569 UT ISI:000232157900012
13570 ER
13571
13572 PT J
13573 AU Brumfiel, G
13574 TI School board in court over bid to teach intelligent design
13575 SO NATURE
13576 LA English
13577 DT News Item
13578 AB The high school board of Dover, Pennsylvania has begun legal
13579 preceedings to investigate if intelligent design should be taught as a
13580 viable scientific theoryand if it violates the required separation of
13581 church and state in lessons.
13582 NR 0
13583 TC 0
13584 PU NATURE PUBLISHING GROUP
13585 PI LONDON
13586 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13587 SN 0028-0836
13588 J9 NATURE
13589 JI Nature
13590 PD SEP 29
13591 PY 2005
13592 VL 437
13593 IS 7059
13594 BP 607
13595 EP 607
13596 PG 1
13597 SC Multidisciplinary Sciences
13598 GA 968JD
13599 UT ISI:000232157900013
13600 ER
13601
13602 PT J
13603 AU [Anon]
13604 TI The nightmare before funding (vol 437, pg 308, 2005)
13605 SO NATURE
13606 LA English
13607 DT News Item
13608 NR 1
13609 TC 0
13610 PU NATURE PUBLISHING GROUP
13611 PI LONDON
13612 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13613 SN 0028-0836
13614 J9 NATURE
13615 JI Nature
13616 PD SEP 29
13617 PY 2005
13618 VL 437
13619 IS 7059
13620 BP 609
13621 EP 609
13622 PG 1
13623 SC Multidisciplinary Sciences
13624 GA 968JD
13625 UT ISI:000232157900014
13626 ER
13627
13628 PT J
13629 AU Kanipe, J
13630 TI Mountain at the top
13631 SO NATURE
13632 LA English
13633 DT News Item
13634 NR 0
13635 TC 0
13636 PU NATURE PUBLISHING GROUP
13637 PI LONDON
13638 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13639 SN 0028-0836
13640 J9 NATURE
13641 JI Nature
13642 PD SEP 29
13643 PY 2005
13644 VL 437
13645 IS 7059
13646 BP 610
13647 EP 611
13648 PG 2
13649 SC Multidisciplinary Sciences
13650 GA 968JD
13651 UT ISI:000232157900015
13652 ER
13653
13654 PT J
13655 AU Cooke, R
13656 TI Back to the bottom
13657 SO NATURE
13658 LA English
13659 DT News Item
13660 AB Marine scientists are getting ready for their newest tool, a versatile
13661 robot submersible that can travel into the oceans' deepest abyss.
13662 NR 3
13663 TC 0
13664 PU NATURE PUBLISHING GROUP
13665 PI LONDON
13666 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13667 SN 0028-0836
13668 J9 NATURE
13669 JI Nature
13670 PD SEP 29
13671 PY 2005
13672 VL 437
13673 IS 7059
13674 BP 612
13675 EP 613
13676 PG 2
13677 SC Multidisciplinary Sciences
13678 GA 968JD
13679 UT ISI:000232157900016
13680 ER
13681
13682 PT J
13683 AU Odling-Smee, L
13684 TI Dollars and sense
13685 SO NATURE
13686 LA English
13687 DT News Item
13688 ID HOTSPOTS; CONSERVATION; BIODIVERSITY
13689 AB Approaches to conservation that seek to protect the most endangered
13690 species have had only mixed success. A new breed of conservationists
13691 say we should not concentrate exclusively on saving the rare and
13692 endangered or on protecting species diversity.
13693 NR 9
13694 TC 3
13695 PU NATURE PUBLISHING GROUP
13696 PI LONDON
13697 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13698 SN 0028-0836
13699 J9 NATURE
13700 JI Nature
13701 PD SEP 29
13702 PY 2005
13703 VL 437
13704 IS 7059
13705 BP 614
13706 EP 616
13707 PG 3
13708 SC Multidisciplinary Sciences
13709 GA 968JD
13710 UT ISI:000232157900017
13711 ER
13712
13713 PT J
13714 AU Marris, E
13715 TI Taking quackery out of conservation
13716 SO NATURE
13717 LA English
13718 DT News Item
13719 AB In the past few years, efforts have been launched to make evaluation of
13720 conservation projects more rigorous and transparent. One such goal is
13721 to harmonize the terminology use. But measuring the effectiveness of a
13722 particular project isonly the start the data must be disseminated to be
13723 useful.
13724 NR 0
13725 TC 0
13726 PU NATURE PUBLISHING GROUP
13727 PI LONDON
13728 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13729 SN 0028-0836
13730 J9 NATURE
13731 JI Nature
13732 PD SEP 29
13733 PY 2005
13734 VL 437
13735 IS 7059
13736 BP 616
13737 EP 616
13738 PG 1
13739 SC Multidisciplinary Sciences
13740 GA 968JD
13741 UT ISI:000232157900018
13742 ER
13743
13744 PT J
13745 AU Wadman, M
13746 TI Appetite downer awaits approval
13747 SO NATURE
13748 LA English
13749 DT News Item
13750 AB Pill that works by putting the hunger induced by cannabis into reverse
13751 could jump start a languishing market for obesity drugs.
13752 NR 3
13753 TC 0
13754 PU NATURE PUBLISHING GROUP
13755 PI LONDON
13756 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13757 SN 0028-0836
13758 J9 NATURE
13759 JI Nature
13760 PD SEP 29
13761 PY 2005
13762 VL 437
13763 IS 7059
13764 BP 618
13765 EP 619
13766 PG 2
13767 SC Multidisciplinary Sciences
13768 GA 968JD
13769 UT ISI:000232157900019
13770 ER
13771
13772 PT J
13773 AU [Anon]
13774 TI Clean-energy stocks
13775 SO NATURE
13776 LA English
13777 DT News Item
13778 NR 0
13779 TC 0
13780 PU NATURE PUBLISHING GROUP
13781 PI LONDON
13782 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13783 SN 0028-0836
13784 J9 NATURE
13785 JI Nature
13786 PD SEP 29
13787 PY 2005
13788 VL 437
13789 IS 7059
13790 BP 619
13791 EP 619
13792 PG 1
13793 SC Multidisciplinary Sciences
13794 GA 968JD
13795 UT ISI:000232157900020
13796 ER
13797
13798 PT J
13799 AU Atran, S
13800 Stern, J
13801 TI Small groups find fatal purpose through the web
13802 SO NATURE
13803 LA English
13804 DT Letter
13805 C1 Inst Jean Nicod, CNRS, F-75007 Paris, France.
13806 Univ Michigan, Inst Social Res, Ann Arbor, MI 48106 USA.
13807 Harvard Univ, John F Kennedy Sch Govt, Cambridge, MA 02138 USA.
13808 RP Atran, S, Inst Jean Nicod, CNRS, 1 Bis Ave Lowendal, F-75007 Paris,
13809 France.
13810 NR 1
13811 TC 0
13812 PU NATURE PUBLISHING GROUP
13813 PI LONDON
13814 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13815 SN 0028-0836
13816 J9 NATURE
13817 JI Nature
13818 PD SEP 29
13819 PY 2005
13820 VL 437
13821 IS 7059
13822 BP 630
13823 EP 630
13824 PG 1
13825 SC Multidisciplinary Sciences
13826 GA 968JD
13827 UT ISI:000232157900021
13828 ER
13829
13830 PT J
13831 AU Bennett, B
13832 TI Most radiation-related deaths happened in 1945
13833 SO NATURE
13834 LA English
13835 DT Letter
13836 C1 Radiat Effects Res Fdn, Minami Ku, Hiroshima 7320815, Japan.
13837 RP Bennett, B, Radiat Effects Res Fdn, Minami Ku, 5-2 Hijiyama Pk,
13838 Hiroshima 7320815, Japan.
13839 NR 2
13840 TC 0
13841 PU NATURE PUBLISHING GROUP
13842 PI LONDON
13843 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13844 SN 0028-0836
13845 J9 NATURE
13846 JI Nature
13847 PD SEP 29
13848 PY 2005
13849 VL 437
13850 IS 7059
13851 BP 630
13852 EP 630
13853 PG 1
13854 SC Multidisciplinary Sciences
13855 GA 968JD
13856 UT ISI:000232157900022
13857 ER
13858
13859 PT J
13860 AU Feder, N
13861 TI Public disclosure could deter conflicts of interest
13862 SO NATURE
13863 LA English
13864 DT Letter
13865 C1 NIH, Bethesda, MD 20817 USA.
13866 RP Feder, N, NIH, 2 Democracy Plaza, Bethesda, MD 20817 USA.
13867 NR 1
13868 TC 0
13869 PU NATURE PUBLISHING GROUP
13870 PI LONDON
13871 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13872 SN 0028-0836
13873 J9 NATURE
13874 JI Nature
13875 PD SEP 29
13876 PY 2005
13877 VL 437
13878 IS 7059
13879 BP 630
13880 EP 630
13881 PG 1
13882 SC Multidisciplinary Sciences
13883 GA 968JD
13884 UT ISI:000232157900023
13885 ER
13886
13887 PT J
13888 AU Paul, D
13889 TI Race to the finish: Identity and governance in an age of genomics
13890 SO NATURE
13891 LA English
13892 DT Book Review
13893 C1 Univ Massachusetts, Dept Polit Sci, Boston, MA 02125 USA.
13894 RP Paul, D, Univ Massachusetts, Dept Polit Sci, 100 Morrissey Blvd,
13895 Boston, MA 02125 USA.
13896 NR 1
13897 TC 0
13898 PU NATURE PUBLISHING GROUP
13899 PI LONDON
13900 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13901 SN 0028-0836
13902 J9 NATURE
13903 JI Nature
13904 PD SEP 29
13905 PY 2005
13906 VL 437
13907 IS 7059
13908 BP 621
13909 EP 622
13910 PG 2
13911 SC Multidisciplinary Sciences
13912 GA 968JD
13913 UT ISI:000232157900024
13914 ER
13915
13916 PT J
13917 AU Stevens, C
13918 TI The war of the soups and the sparks: The discovery of neurotransmitters
13919 and the dispute over how nerves communicate
13920 SO NATURE
13921 LA English
13922 DT Book Review
13923 C1 Salk Inst Biol Studies, San Diego, CA 92186 USA.
13924 RP Stevens, C, Salk Inst Biol Studies, POB 85800, San Diego, CA 92186 USA.
13925 NR 1
13926 TC 0
13927 PU NATURE PUBLISHING GROUP
13928 PI LONDON
13929 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13930 SN 0028-0836
13931 J9 NATURE
13932 JI Nature
13933 PD SEP 29
13934 PY 2005
13935 VL 437
13936 IS 7059
13937 BP 622
13938 EP 622
13939 PG 1
13940 SC Multidisciplinary Sciences
13941 GA 968JD
13942 UT ISI:000232157900025
13943 ER
13944
13945 PT J
13946 AU Hartmann, WK
13947 TI The planets
13948 SO NATURE
13949 LA English
13950 DT Book Review
13951 C1 Planetary Sci Inst, Tucson, AZ 85719 USA.
13952 RP Hartmann, WK, Planetary Sci Inst, 1700 E Ft Lowell Rd,Suite 106,
13953 Tucson, AZ 85719 USA.
13954 NR 1
13955 TC 0
13956 PU NATURE PUBLISHING GROUP
13957 PI LONDON
13958 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13959 SN 0028-0836
13960 J9 NATURE
13961 JI Nature
13962 PD SEP 29
13963 PY 2005
13964 VL 437
13965 IS 7059
13966 BP 623
13967 EP 623
13968 PG 1
13969 SC Multidisciplinary Sciences
13970 GA 968JD
13971 UT ISI:000232157900026
13972 ER
13973
13974 PT J
13975 AU Anderson, PW
13976 TI Thinking big
13977 SO NATURE
13978 LA English
13979 DT Editorial Material
13980 C1 Princeton Univ, Dept Phys, Princeton, NJ 08544 USA.
13981 RP Anderson, PW, Princeton Univ, Dept Phys, Princeton, NJ 08544 USA.
13982 NR 0
13983 TC 0
13984 PU NATURE PUBLISHING GROUP
13985 PI LONDON
13986 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
13987 SN 0028-0836
13988 J9 NATURE
13989 JI Nature
13990 PD SEP 29
13991 PY 2005
13992 VL 437
13993 IS 7059
13994 BP 625
13995 EP 625
13996 PG 1
13997 SC Multidisciplinary Sciences
13998 GA 968JD
13999 UT ISI:000232157900027
14000 ER
14001
14002 PT J
14003 AU Bonetta, D
14004 McCourt, P
14005 TI Plant biology - A receptor for gibberellin
14006 SO NATURE
14007 LA English
14008 DT Editorial Material
14009 ID BOX PROTEIN TIR1; INDUCED DEGRADATION; GREEN-REVOLUTION; AUXIN
14010 RECEPTOR; GENE ENCODES; MUTANT; PATHWAY; RGA
14011 C1 Univ Ontario Inst Technol, Fac Sci, Oshawa, ON L1H 7K4, Canada.
14012 Univ Toronto, Dept Bot, Toronto, ON M5S 3B2, Canada.
14013 RP Bonetta, D, Univ Ontario Inst Technol, Fac Sci, Oshawa, ON L1H 7K4,
14014 Canada.
14015 EM dario.bonetta@uoit.ca
14016 mccourt@botany.utoronto.ca
14017 NR 13
14018 TC 0
14019 PU NATURE PUBLISHING GROUP
14020 PI LONDON
14021 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14022 SN 0028-0836
14023 J9 NATURE
14024 JI Nature
14025 PD SEP 29
14026 PY 2005
14027 VL 437
14028 IS 7059
14029 BP 627
14030 EP 628
14031 PG 2
14032 SC Multidisciplinary Sciences
14033 GA 968JD
14034 UT ISI:000232157900028
14035 ER
14036
14037 PT J
14038 AU Levy, M
14039 TI Oceanography - Nutrients in remote mode
14040 SO NATURE
14041 LA English
14042 DT Editorial Material
14043 C1 Inst Pierre Simon Laplace, Lab Oceanog & Climatol Experimentat & Anal Numer, F-75252 Paris, France.
14044 RP Levy, M, Inst Pierre Simon Laplace, Lab Oceanog & Climatol Experimentat
14045 & Anal Numer, 4 Pl Jussieu, F-75252 Paris, France.
14046 EM marina@lodyc.jussieu.fr
14047 NR 6
14048 TC 0
14049 PU NATURE PUBLISHING GROUP
14050 PI LONDON
14051 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14052 SN 0028-0836
14053 J9 NATURE
14054 JI Nature
14055 PD SEP 29
14056 PY 2005
14057 VL 437
14058 IS 7059
14059 BP 628
14060 EP +
14061 PG 3
14062 SC Multidisciplinary Sciences
14063 GA 968JD
14064 UT ISI:000232157900029
14065 ER
14066
14067 PT J
14068 AU Webb, R
14069 TI Fluid dynamics - Let us spray
14070 SO NATURE
14071 LA English
14072 DT Editorial Material
14073 NR 1
14074 TC 0
14075 PU NATURE PUBLISHING GROUP
14076 PI LONDON
14077 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14078 SN 0028-0836
14079 J9 NATURE
14080 JI Nature
14081 PD SEP 29
14082 PY 2005
14083 VL 437
14084 IS 7059
14085 BP 629
14086 EP 629
14087 PG 1
14088 SC Multidisciplinary Sciences
14089 GA 968JD
14090 UT ISI:000232157900030
14091 ER
14092
14093 PT J
14094 AU Eldar, A
14095 Elowitz, M
14096 TI Systems biology - Deviations in mating
14097 SO NATURE
14098 LA English
14099 DT Editorial Material
14100 ID GENE-EXPRESSION; SINGLE-CELL
14101 C1 CALTECH, Div Biol, Pasadena, CA 91125 USA.
14102 CALTECH, Dept Appl Phys, Pasadena, CA 91125 USA.
14103 RP Eldar, A, CALTECH, Div Biol, Pasadena, CA 91125 USA.
14104 EM melowitz@caltech.edu
14105 NR 6
14106 TC 0
14107 PU NATURE PUBLISHING GROUP
14108 PI LONDON
14109 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14110 SN 0028-0836
14111 J9 NATURE
14112 JI Nature
14113 PD SEP 29
14114 PY 2005
14115 VL 437
14116 IS 7059
14117 BP 631
14118 EP 632
14119 PG 2
14120 SC Multidisciplinary Sciences
14121 GA 968JD
14122 UT ISI:000232157900031
14123 ER
14124
14125 PT J
14126 AU Gies, H
14127 TI Materials science - Pore show
14128 SO NATURE
14129 LA English
14130 DT Editorial Material
14131 C1 Ruhr Univ Bochum, Inst Mineral, D-44780 Bochum, Germany.
14132 RP Gies, H, Ruhr Univ Bochum, Inst Mineral, Univ Str 150, D-44780 Bochum,
14133 Germany.
14134 EM Hermann.Gies@ruhr-uni-bochum.de
14135 NR 6
14136 TC 0
14137 PU NATURE PUBLISHING GROUP
14138 PI LONDON
14139 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14140 SN 0028-0836
14141 J9 NATURE
14142 JI Nature
14143 PD SEP 29
14144 PY 2005
14145 VL 437
14146 IS 7059
14147 BP 633
14148 EP 633
14149 PG 1
14150 SC Multidisciplinary Sciences
14151 GA 968JD
14152 UT ISI:000232157900032
14153 ER
14154
14155 PT J
14156 AU Milne, S
14157 Hinde, R
14158 TI Joseph Rotblat 1908-2005 - Physicist who committed his life to the
14159 cause of nuclear disarmament. Obituary
14160 SO NATURE
14161 LA English
14162 DT Biographical-Item
14163 C1 Pugwash UK, Execut Comm, London WC1B 3BJ, England.
14164 RP Milne, S, Pugwash UK, Execut Comm, 63A Great Russell St, London WC1B
14165 3BJ, England.
14166 EM pugwash@mac.com
14167 NR 0
14168 TC 0
14169 PU NATURE PUBLISHING GROUP
14170 PI LONDON
14171 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14172 SN 0028-0836
14173 J9 NATURE
14174 JI Nature
14175 PD SEP 29
14176 PY 2005
14177 VL 437
14178 IS 7059
14179 BP 634
14180 EP 634
14181 PG 1
14182 SC Multidisciplinary Sciences
14183 GA 968JD
14184 UT ISI:000232157900033
14185 ER
14186
14187 PT J
14188 AU Khaldoun, A
14189 Eiser, E
14190 Wegdam, GH
14191 Bonn, D
14192 TI Liquefaction of quicksand under stress - A person trapped in salt-lake
14193 quicksand is not in any danger of being sucked under completely.
14194 SO NATURE
14195 LA English
14196 DT Editorial Material
14197 C1 Univ Amsterdam, Van der Waals Zeeman Inst, NL-1018 XE Amsterdam, Netherlands.
14198 Univ Amsterdam, HIMS, NL-1018 XE Amsterdam, Netherlands.
14199 Ecole Normale Super, Phys Stat Lab, F-75231 Paris, France.
14200 RP Khaldoun, A, Univ Amsterdam, Van der Waals Zeeman Inst, Kruislaan 403,
14201 NL-1018 XE Amsterdam, Netherlands.
14202 EM bonn@science.uva.nl
14203 NR 7
14204 TC 0
14205 PU NATURE PUBLISHING GROUP
14206 PI LONDON
14207 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14208 SN 0028-0836
14209 J9 NATURE
14210 JI Nature
14211 PD SEP 29
14212 PY 2005
14213 VL 437
14214 IS 7059
14215 BP 635
14216 EP 635
14217 PG 1
14218 SC Multidisciplinary Sciences
14219 GA 968JD
14220 UT ISI:000232157900034
14221 ER
14222
14223 PT J
14224 AU Griffith, S
14225 Goldwater, D
14226 Jacobson, JM
14227 TI Robotics - Self-replication from random parts
14228 SO NATURE
14229 LA English
14230 DT Editorial Material
14231 C1 MIT, Media Lab, Ctr Bits & Atoms, Cambridge, MA 02139 USA.
14232 RP Griffith, S, MIT, Media Lab, Ctr Bits & Atoms, Cambridge, MA 02139 USA.
14233 EM jacobson@media.mit.edu
14234 NR 10
14235 TC 0
14236 PU NATURE PUBLISHING GROUP
14237 PI LONDON
14238 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14239 SN 0028-0836
14240 J9 NATURE
14241 JI Nature
14242 PD SEP 29
14243 PY 2005
14244 VL 437
14245 IS 7059
14246 BP 636
14247 EP 636
14248 PG 1
14249 SC Multidisciplinary Sciences
14250 GA 968JD
14251 UT ISI:000232157900035
14252 ER
14253
14254 PT J
14255 AU Allara, DL
14256 TI A perspective on surfaces and interfaces
14257 SO NATURE
14258 LA English
14259 DT Editorial Material
14260 ID SELF-ASSEMBLED MONOLAYERS
14261 C1 Penn State Univ, Dept Polymer Sci & Chem, University Pk, PA 16802 USA.
14262 RP Allara, DL, Penn State Univ, Dept Polymer Sci & Chem, 206 Chem Bldg,
14263 University Pk, PA 16802 USA.
14264 EM dla3@psu.edu
14265 NR 5
14266 TC 0
14267 PU NATURE PUBLISHING GROUP
14268 PI LONDON
14269 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14270 SN 0028-0836
14271 J9 NATURE
14272 JI Nature
14273 PD SEP 29
14274 PY 2005
14275 VL 437
14276 IS 7059
14277 BP 638
14278 EP 639
14279 PG 2
14280 SC Multidisciplinary Sciences
14281 GA 968JD
14282 UT ISI:000232157900036
14283 ER
14284
14285 PT J
14286 AU Chandler, D
14287 TI Interfaces and the driving force of hydrophobic assembly
14288 SO NATURE
14289 LA English
14290 DT Review
14291 ID FREE-ENERGIES; LIQUID WATER; HYDRATION; SOLVATION; MODEL; SIMULATION;
14292 SOLUTES; CONVERGENCE; TEMPERATURE; TRANSITION
14293 AB The hydrophobic effect - the tendency for oil and water to segregate -
14294 is important in diverse phenomena, from the cleaning of laundry, to the
14295 creation of micro-emulsions to make new materials, to the assembly of
14296 proteins into functional complexes. This effect is multifaceted
14297 depending on whether hydrophobic molecules are individually hydrated or
14298 driven to assemble into larger structures. Despite the basic principles
14299 underlying the hydrophobic effect being qualitatively well understood,
14300 only recently have theoretical developments begun to explain and
14301 quantify many features of this ubiquitous phenomenon.
14302 C1 Univ Calif Berkeley, Dept Chem, Berkeley, CA 94720 USA.
14303 RP Chandler, D, Univ Calif Berkeley, Dept Chem, Berkeley, CA 94720 USA.
14304 EM chandler@cchem.berkeley.edu
14305 NR 68
14306 TC 0
14307 PU NATURE PUBLISHING GROUP
14308 PI LONDON
14309 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14310 SN 0028-0836
14311 J9 NATURE
14312 JI Nature
14313 PD SEP 29
14314 PY 2005
14315 VL 437
14316 IS 7059
14317 BP 640
14318 EP 647
14319 PG 8
14320 SC Multidisciplinary Sciences
14321 GA 968JD
14322 UT ISI:000232157900037
14323 ER
14324
14325 PT J
14326 AU Atencia, J
14327 Beebe, DJ
14328 TI Controlled microfluidic interfaces
14329 SO NATURE
14330 LA English
14331 DT Review
14332 ID MONODISPERSE DOUBLE EMULSIONS; FIELD-FLOW FRACTIONATION; ON-A-CHIP;
14333 LAMINAR-FLOW; MICROFABRICATED DEVICE; IMMISCIBLE LIQUIDS; ACTIVE
14334 CONTROL; METAL-IONS; T-SENSOR; MICROCHANNELS
14335 C1 Univ Wisconsin, Dept Biomed Engn, Madison, WI 53706 USA.
14336 RP Beebe, DJ, Univ Wisconsin, Dept Biomed Engn, 1550 Engn Dr,Rm 2142 ECB,
14337 Madison, WI 53706 USA.
14338 EM djbeebe@wisc.edu
14339 NR 94
14340 TC 0
14341 PU NATURE PUBLISHING GROUP
14342 PI LONDON
14343 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14344 SN 0028-0836
14345 J9 NATURE
14346 JI Nature
14347 PD SEP 29
14348 PY 2005
14349 VL 437
14350 IS 7059
14351 BP 648
14352 EP 655
14353 PG 8
14354 SC Multidisciplinary Sciences
14355 GA 968JD
14356 UT ISI:000232157900038
14357 ER
14358
14359 PT J
14360 AU Tanaka, M
14361 Sackmann, E
14362 TI Polymer-supported membranes as models of the cell surface
14363 SO NATURE
14364 LA English
14365 DT Review
14366 ID LIPID-BILAYER-MEMBRANES; TIN-OXIDE ELECTRODES; HUMAN
14367 ERYTHROCYTE-MEMBRANES; SILICON-SILICON DIOXIDE; IMPEDANCE SPECTROSCOPY;
14368 ULTRATHIN FILMS; FLUORESCENCE MICROSCOPY; PHOSPHOLIPID-MEMBRANES;
14369 NEUTRON REFLECTIVITY; LATERAL DIFFUSION
14370 AB Lipid-bilayer membranes supported on solid substrates are widely used
14371 as cell-surface models that connect biological and artificial
14372 materials. They can be placed either directly on solids or on ultrathin
14373 polymer supports that mimic the generic role of the extracellular
14374 matrix. The tools of modern genetic engineering and bioorganic
14375 chemistry make it possible to couple many types of biomolecule to
14376 supported membranes. This results in sophisticated interfaces that can
14377 be used to control, organize and study the properties and function of
14378 membranes and membrane-associated proteins. Particularly exciting
14379 opportunities arise when these systems are coupled with advanced
14380 semiconductor technology.
14381 C1 Tech Univ Munich, Dept Phys, D-85748 Garching, Germany.
14382 RP Tanaka, M, Univ Heidelberg, Inst Phys Chem, D-69120 Heidelberg, Germany.
14383 EM mtanaka@ph.tum.de
14384 NR 87
14385 TC 0
14386 PU NATURE PUBLISHING GROUP
14387 PI LONDON
14388 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14389 SN 0028-0836
14390 J9 NATURE
14391 JI Nature
14392 PD SEP 29
14393 PY 2005
14394 VL 437
14395 IS 7059
14396 BP 656
14397 EP 663
14398 PG 8
14399 SC Multidisciplinary Sciences
14400 GA 968JD
14401 UT ISI:000232157900039
14402 ER
14403
14404 PT J
14405 AU Yin, Y
14406 Alivisatos, AP
14407 TI Colloidal nanocrystal synthesis and the organic-inorganic interface
14408 SO NATURE
14409 LA English
14410 DT Review
14411 ID ORIENTED ATTACHMENT MECHANISM; SEMICONDUCTOR QUANTUM RODS; CDSE
14412 NANOCRYSTALS; CONTROLLED GROWTH; SELECTIVE GROWTH; SHAPE-CONTROL;
14413 SOLAR-CELLS; SIZE; NANOPARTICLES; DOTS
14414 AB Colloidal nanocrystals are solution-grown, nanometre-sized, inorganic
14415 particles that are stabilized by a layer of surfactants attached to
14416 their surface. The inorganic cores possess useful properties that are
14417 controlled by their composition, size and shape, and the surfactant
14418 coating ensures that these structures are easy to fabricate and process
14419 further into more complex structures. This combination of features
14420 makes colloidal nanocrystals attractive and promising building blocks
14421 for advanced materials and devices. Chemists are achieving ever more
14422 exquisite control over the composition, size, shape, crystal structure
14423 and surface properties of nanocrystals, thus setting the stage for
14424 fully exploiting the potential of these remarkable materials.
14425 C1 Univ Calif Berkeley, Dept Chem, Berkeley, CA 94720 USA.
14426 Univ Calif Berkeley, Lawrence Berkeley Lab, Mol Foundry, Berkeley, CA 94720 USA.
14427 RP Alivisatos, AP, Univ Calif Berkeley, Dept Chem, Berkeley, CA 94720 USA.
14428 EM alivis@berkeley.edu
14429 NR 62
14430 TC 0
14431 PU NATURE PUBLISHING GROUP
14432 PI LONDON
14433 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14434 SN 0028-0836
14435 J9 NATURE
14436 JI Nature
14437 PD SEP 29
14438 PY 2005
14439 VL 437
14440 IS 7059
14441 BP 664
14442 EP 670
14443 PG 7
14444 SC Multidisciplinary Sciences
14445 GA 968JD
14446 UT ISI:000232157900040
14447 ER
14448
14449 PT J
14450 AU Barth, JV
14451 Costantini, G
14452 Kern, K
14453 TI Engineering atomic and molecular nanostructures at surfaces
14454 SO NATURE
14455 LA English
14456 DT Review
14457 ID QUANTUM-DOT MOLECULES; SCANNING TUNNELING MICROSCOPY; METAL-SURFACES;
14458 MAGNETOCRYSTALLINE ANISOTROPY; 2-DIMENSIONAL NANOSTRUCTURES;
14459 SUPRAMOLECULAR ARCHITECTURES; MAGNETIC NANOSTRUCTURES;
14460 SELF-ORGANIZATION; CARBON NANOTUBES; ARTIFICIAL ATOMS
14461 AB The fabrication methods of the microelectronics industry have been
14462 refined to produce ever smaller devices, but will soon reach their
14463 fundamental limits. A promising alternative route to even smaller
14464 functional systems with nanometre dimensions is the autonomous ordering
14465 and assembly of atoms and molecules on atomically well-defined
14466 surfaces. This approach combines ease of fabrication with exquisite
14467 control over the shape, composition and mesoscale organization of the
14468 surface structures formed. Once the mechanisms controlling the
14469 self-ordering phenomena are fully understood, the self-assembly and
14470 growth processes can be steered to create a wide range of surface
14471 nanostructures from metallic, semiconducting and molecular materials.
14472 C1 Ecole Polytech Fed Lausanne, Inst Phys Nanostruct, CH-1015 Lausanne, Switzerland.
14473 Univ British Columbia, Dept Chem, Vancouver, BC V6T 1Z4, Canada.
14474 Univ British Columbia, Dept Phys & Astron, Vancouver, BC V6T 1Z4, Canada.
14475 Max Planck Inst Festkorperforsch, D-70569 Stuttgart, Germany.
14476 RP Kern, K, Ecole Polytech Fed Lausanne, Inst Phys Nanostruct, CH-1015
14477 Lausanne, Switzerland.
14478 EM k.kern@fkf.mpg.de
14479 NR 96
14480 TC 0
14481 PU NATURE PUBLISHING GROUP
14482 PI LONDON
14483 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14484 SN 0028-0836
14485 J9 NATURE
14486 JI Nature
14487 PD SEP 29
14488 PY 2005
14489 VL 437
14490 IS 7059
14491 BP 671
14492 EP 679
14493 PG 9
14494 SC Multidisciplinary Sciences
14495 GA 968JD
14496 UT ISI:000232157900041
14497 ER
14498
14499 PT J
14500 AU Orr, JC
14501 Fabry, VJ
14502 Aumont, O
14503 Bopp, L
14504 Doney, SC
14505 Feely, RA
14506 Gnanadesikan, A
14507 Gruber, N
14508 Ishida, A
14509 Joos, F
14510 Key, RM
14511 Lindsay, K
14512 Maier-Reimer, E
14513 Matear, R
14514 Monfray, P
14515 Mouchet, A
14516 Najjar, RG
14517 Plattner, GK
14518 Rodgers, KB
14519 Sabine, CL
14520 Sarmiento, JL
14521 Schlitzer, R
14522 Slater, RD
14523 Totterdell, IJ
14524 Weirig, MF
14525 Yamanaka, Y
14526 Yool, A
14527 TI Anthropogenic ocean acidification over the twenty-first century and its
14528 impact on calcifying organisms
14529 SO NATURE
14530 LA English
14531 DT Article
14532 ID ATMOSPHERIC CARBON-DIOXIDE; PRINCE-WILLIAM-SOUND; TERRA-NOVA BAY; ROSS
14533 SEA; ARAGONITE PRODUCTION; PACIFIC SECTOR; SOUTHERN-OCEAN; VERTICAL
14534 FLUX; CO2; ANTARCTICA
14535 AB Today's surface ocean is saturated with respect to calcium carbonate,
14536 but increasing atmospheric carbon dioxide concentrations are reducing
14537 ocean pH and carbonate ion concentrations, and thus the level of
14538 calcium carbonate saturation. Experimental evidence suggests that if
14539 these trends continue, key marine organisms - such as corals and some
14540 plankton - will have difficulty maintaining their external calcium
14541 carbonate skeletons. Here we use 13 models of the ocean - carbon cycle
14542 to assess calcium carbonate saturation under the IS92a
14543 'business-as-usual' scenario for future emissions of anthropogenic
14544 carbon dioxide. In our projections, Southern Ocean surface waters will
14545 begin to become undersaturated with respect to aragonite, a metastable
14546 form of calcium carbonate, by the year 2050. By 2100, this
14547 undersaturation could extend throughout the entire Southern Ocean and
14548 into the subarctic Pacific Ocean. When live pteropods were exposed to
14549 our predicted level of undersaturation during a two-day shipboard
14550 experiment, their aragonite shells showed notable dissolution. Our
14551 findings indicate that conditions detrimental to high-latitude
14552 ecosystems could develop within decades, not centuries as suggested
14553 previously.
14554 C1 CEA Saclay, UMR CEA CNRS, Lab Sci Climat & Environm, F-91191 Gif Sur Yvette, France.
14555 Calif State Univ San Marcos, Dept Biol Sci, San Marcos, CA 92096 USA.
14556 Ctr IRD Bretagne, LOCEAN, F-29280 Plouzane, France.
14557 Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA.
14558 NOAA, Pacific Marine Environm Lab, Seattle, WA 98115 USA.
14559 NOAA, Geophys Fluid Dynam Lab, Princeton, NJ 08542 USA.
14560 Univ Calif Los Angeles, Inst Geophys & Planetary Phys, Los Angeles, CA 90095 USA.
14561 Frontier Res Ctr Global Change, Yokohama, Kanagawa 2360001, Japan.
14562 Univ Bern, Inst Phys, CH-3012 Bern, Switzerland.
14563 Princeton Univ, Atmospher & Ocean Sci Program, Princeton, NJ 08544 USA.
14564 Natl Ctr Atmospher Res, Boulder, CO 80307 USA.
14565 Max Planck Inst Meteorol, D-20146 Hamburg, Germany.
14566 CSIRO, Marine Res & Antarctic Climate & Ecosyst CRC, Hobart, Tas 7001, Australia.
14567 Univ Liege, Astrophys & Geophys Inst, B-4000 Liege, Belgium.
14568 Penn State Univ, Dept Meteorol, University Pk, PA 16802 USA.
14569 Univ Paris 06, LOCEAN, F-75252 Paris, France.
14570 Alfred Wegener Inst Polar & Marine Res, D-27515 Bremerhaven, Germany.
14571 Natl Oceanog Ctr Southampton, Southampton SO14 3ZH, Hants, England.
14572 RP Orr, JC, CEA Saclay, UMR CEA CNRS, Lab Sci Climat & Environm, F-91191
14573 Gif Sur Yvette, France.
14574 EM orr@cea.fr
14575 NR 49
14576 TC 0
14577 PU NATURE PUBLISHING GROUP
14578 PI LONDON
14579 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14580 SN 0028-0836
14581 J9 NATURE
14582 JI Nature
14583 PD SEP 29
14584 PY 2005
14585 VL 437
14586 IS 7059
14587 BP 681
14588 EP 686
14589 PG 6
14590 SC Multidisciplinary Sciences
14591 GA 968JD
14592 UT ISI:000232157900042
14593 ER
14594
14595 PT J
14596 AU Palter, JB
14597 Lozier, MS
14598 Barber, RT
14599 TI The effect of advection on the nutrient reservoir in the North Atlantic
14600 subtropical gyre
14601 SO NATURE
14602 LA English
14603 DT Article
14604 ID SARGASSO SEA; OPEN-OCEAN; VARIABILITY; PRODUCTIVITY; CIRCULATION; WATER
14605 AB Though critically important in sustaining the ocean's biological pump,
14606 the cycling of nutrients in the subtropical gyres is poorly understood.
14607 The supply of nutrients to the sunlit surface layer of the ocean has
14608 traditionally been attributed solely to vertical processes. However,
14609 horizontal advection may also be important in establishing the
14610 availability of nutrients. Here we show that the production and
14611 advection of North Atlantic Subtropical Mode Water introduces spatial
14612 and temporal variability in the subsurface nutrient reservoir beneath
14613 the North Atlantic subtropical gyre. As the mode water is formed, its
14614 nutrients are depleted by biological utilization. When the depleted
14615 water mass is exported to the gyre, it injects a wedge of low-nutrient
14616 water into the upper layers of the ocean. Contrary to intuition, cold
14617 winters that promote deep convective mixing and vigorous mode water
14618 formation may diminish downstream primary productivity by altering the
14619 subsurface delivery of nutrients.
14620 C1 Duke Univ, Nicholas Sch Environm & Earth Sci, Div Earth & Ocean Sci, Durham, NC 27708 USA.
14621 Duke Univ, Marine Lab, Nicholas Sch Environm & Earth Sci, Div Coastal Syst Sci & Policy, Beaufort, NC 28516 USA.
14622 RP Palter, JB, Duke Univ, Nicholas Sch Environm & Earth Sci, Div Earth &
14623 Ocean Sci, Durham, NC 27708 USA.
14624 EM jbp3@duke.edu
14625 NR 32
14626 TC 1
14627 PU NATURE PUBLISHING GROUP
14628 PI LONDON
14629 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14630 SN 0028-0836
14631 J9 NATURE
14632 JI Nature
14633 PD SEP 29
14634 PY 2005
14635 VL 437
14636 IS 7059
14637 BP 687
14638 EP 692
14639 PG 6
14640 SC Multidisciplinary Sciences
14641 GA 968JD
14642 UT ISI:000232157900043
14643 ER
14644
14645 PT J
14646 AU Ueguchi-Tanaka, M
14647 Ashikari, M
14648 Nakajima, M
14649 Itoh, H
14650 Katoh, E
14651 Kobayashi, M
14652 Chow, TY
14653 Hsing, YIC
14654 Kitano, H
14655 Yamaguchi, I
14656 Matsuoka, M
14657 TI GIBBERELLIN INSENSITIVE DWARF1 encodes a soluble receptor for
14658 gibberellin
14659 SO NATURE
14660 LA English
14661 DT Article
14662 ID HORMONE-SENSITIVE LIPASE; SIGNAL-TRANSDUCTION; SLENDER RICE1; PROTEIN;
14663 PATHWAY; MUTANT; GENE; METABOLISM; SEEDLINGS; ALEURONE
14664 AB Gibberellins ( GAs) are phytohormones that are essential for many
14665 developmental processes in plants. It has been postulated that plants
14666 have both membrane-bound and soluble GA receptors; however, no GA
14667 receptors have yet been identified. Here we report the isolation and
14668 characterization of a new GA-insensitive dwarf mutant of rice, gid1.
14669 The GID1 gene encodes an unknown protein with similarity to the
14670 hormone-sensitive lipases, and we observed preferential localization of
14671 a GID1 - green fluorescent protein (GFP) signal in nuclei. Recombinant
14672 glutathione S-transferase (GST) - GID1 had a high affinity only for
14673 biologically active GAs, whereas mutated GST - GID1 corresponding to
14674 three gid1 alleles had no GA-binding affinity. The dissociation
14675 constant for GA(4) was estimated to be around 10(-7) M, enough to
14676 account for the GA dependency of shoot elongation. Moreover, GID1 bound
14677 to SLR1, a rice DELLA protein, in a GA-dependent manner in yeast cells.
14678 GID1 overexpression resulted in a GA-hypersensitive phenotype.
14679 Together, our results indicate that GID1 is a soluble receptor
14680 mediating GA signalling in rice.
14681 C1 Nagoya Univ, Biosci & Biotechnol Ctr, Nagoya, Aichi 4648601, Japan.
14682 Univ Tokyo, Dept Appl Biol Chem, Tokyo 1138657, Japan.
14683 Natl Inst Agrobiol Sci, Dept Biochem, Tsukuba, Ibaraki 3058602, Japan.
14684 RIKEN, Bioresources Ctr, Tsukuba, Ibaraki 3050074, Japan.
14685 Acad Sinica, Inst Bot, Taipei 11529, Taiwan.
14686 Univ Tokyo, Biotechnol Res Ctr, Tokyo 1138657, Japan.
14687 RP Matsuoka, M, Nagoya Univ, Biosci & Biotechnol Ctr, Nagoya, Aichi
14688 4648601, Japan.
14689 EM makoto@nuagr1.agr.nagoya-u.ac.jp
14690 NR 31
14691 TC 1
14692 PU NATURE PUBLISHING GROUP
14693 PI LONDON
14694 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14695 SN 0028-0836
14696 J9 NATURE
14697 JI Nature
14698 PD SEP 29
14699 PY 2005
14700 VL 437
14701 IS 7059
14702 BP 693
14703 EP 698
14704 PG 6
14705 SC Multidisciplinary Sciences
14706 GA 968JD
14707 UT ISI:000232157900044
14708 ER
14709
14710 PT J
14711 AU Colman-Lerner, A
14712 Gordon, A
14713 Serra, E
14714 Chin, T
14715 Resnekov, O
14716 Endy, D
14717 Pesce, CG
14718 Brent, R
14719 TI Regulated cell-to-cell variation in a cell-fate decision system
14720 SO NATURE
14721 LA English
14722 DT Article
14723 ID KINASE SIGNALING SPECIFICITY; EUKARYOTIC GENE-EXPRESSION;
14724 SACCHAROMYCES-CEREVISIAE; C-ELEGANS; CAENORHABDITIS-ELEGANS; PHEROMONE
14725 RESPONSE; PROTEIN-KINASE; SINGLE-CELL; YEAST; NOISE
14726 AB Here we studied the quantitative behaviour and cell-to-cell variability
14727 of a prototypical eukaryotic cell-fate decision system, the mating
14728 pheromone response pathway in yeast. We dissected and measured sources
14729 of variation in system output, analysing thousands of individual,
14730 genetically identical cells. Only a small proportion of total
14731 cell-to-cell variation is caused by random fluctuations in gene
14732 transcription and translation during the response ('expression noise').
14733 Instead, variation is dominated by differences in the capacity of
14734 individual cells to transmit signals through the pathway ('pathway
14735 capacity') and to express proteins from genes ('expression capacity').
14736 Cells with high expression capacity express proteins at a higher rate
14737 and increase in volume more rapidly. Our results identify two
14738 mechanisms that regulate cell-to-cell variation in pathway capacity.
14739 First, the MAP kinase Fus3 suppresses variation at high pheromone
14740 levels, while the MAP kinase Kss1 enhances variation at low pheromone
14741 levels. Second, pathway capacity and expression capacity are negatively
14742 correlated, suggesting a compensatory mechanism that allows cells to
14743 respond more precisely to pheromone in the presence of a large
14744 variation in expression capacity.
14745 C1 Inst Mol Sci, Berkeley, CA 94704 USA.
14746 MIT, Div Biol Engn, Cambridge, MA 02139 USA.
14747 RP Gordon, A, Inst Mol Sci, 2168 Shattuck Ave, Berkeley, CA 94704 USA.
14748 EM gordon@molsci.org
14749 brent@molsci.org
14750 NR 38
14751 TC 1
14752 PU NATURE PUBLISHING GROUP
14753 PI LONDON
14754 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14755 SN 0028-0836
14756 J9 NATURE
14757 JI Nature
14758 PD SEP 29
14759 PY 2005
14760 VL 437
14761 IS 7059
14762 BP 699
14763 EP 706
14764 PG 8
14765 SC Multidisciplinary Sciences
14766 GA 968JD
14767 UT ISI:000232157900045
14768 ER
14769
14770 PT J
14771 AU Dekel, A
14772 Stoehr, F
14773 Mamon, GA
14774 Cox, TJ
14775 Novak, GS
14776 Primack, JR
14777 TI Lost and found dark matter in elliptical galaxies
14778 SO NATURE
14779 LA English
14780 DT Article
14781 ID CCD SURFACE PHOTOMETRY; COSMOLOGICAL SIMULATIONS; PLANETARY-NEBULAE;
14782 KINEMATICAL DATA; DYNAMICS; CONDENSATION; EVOLUTION; ROTATION; PROFILE;
14783 DEARTH
14784 AB There is strong evidence that the mass of the Universe is dominated by
14785 dark matter, which exerts gravitational attraction but whose exact
14786 nature is unknown. In particular, all galaxies are believed to be
14787 embedded in massive haloes of dark matter(1,2). This view has recently
14788 been challenged by the observation of surprisingly low random stellar
14789 velocities in the outskirts of ordinary elliptical galaxies, which has
14790 been interpreted as indicating a lack of dark matter(3,4). Here we show
14791 that the low velocities are in fact compatible with galaxy formation in
14792 dark-matter haloes. Using numerical simulations of disk-galaxy
14793 mergers(5,6), we find that the stellar orbits in the outer regions of
14794 the resulting ellipticals are very elongated. These stars were torn by
14795 tidal forces from their original galaxies during the first close
14796 passage and put on outgoing trajectories. The elongated orbits,
14797 combined with the steeply falling density profile of the observed
14798 tracers, explain the observed low velocities even in the presence of
14799 large amounts of dark matter. Projection effects when viewing a
14800 triaxial elliptical can lead to even lower observed velocities along
14801 certain lines of sight.
14802 C1 Hebrew Univ Jerusalem, Racah Inst Phys, IL-91904 Jerusalem, Israel.
14803 Inst Astrophys, F-75014 Paris, France.
14804 Observ Paris, F-92195 Meudon, France.
14805 Univ Calif Santa Cruz, Univ Calif Observ, Lick Observ, Dept Phys, Santa Cruz, CA 95064 USA.
14806 Harvard Univ, Ctr Astrophys, Cambridge, MA 02138 USA.
14807 RP Dekel, A, Hebrew Univ Jerusalem, Racah Inst Phys, IL-91904 Jerusalem,
14808 Israel.
14809 EM dekel@phys.huji.ac.il
14810 NR 30
14811 TC 0
14812 PU NATURE PUBLISHING GROUP
14813 PI LONDON
14814 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14815 SN 0028-0836
14816 J9 NATURE
14817 JI Nature
14818 PD SEP 29
14819 PY 2005
14820 VL 437
14821 IS 7059
14822 BP 707
14823 EP 710
14824 PG 4
14825 SC Multidisciplinary Sciences
14826 GA 968JD
14827 UT ISI:000232157900046
14828 ER
14829
14830 PT J
14831 AU Rolles, D
14832 Braune, M
14833 Cvejanovic, S
14834 Gessner, O
14835 Hentges, R
14836 Korica, S
14837 Langer, B
14838 Lischke, T
14839 Prumper, G
14840 Reinkoster, A
14841 Viefhaus, J
14842 Zimmermann, BR
14843 McKoy, V
14844 Becker, U
14845 TI Isotope-induced partial localization of core electrons in the
14846 homonuclear molecule N-2
14847 SO NATURE
14848 LA English
14849 DT Article
14850 ID PHOTOELECTRON ANGULAR-DISTRIBUTION; GERADE SYMMETRY-BREAKING; K-SHELL
14851 PHOTOIONIZATION; SHAPE RESONANCES; IONIZATION; DECAY; SPECTROSCOPY;
14852 TRANSITION; EMISSION
14853 AB Because of inversion symmetry and particle exchange, all constituents
14854 of homonuclear diatomic molecules are in a quantum mechanically
14855 non-local coherent state; this includes the nuclei and deep-lying core
14856 electrons. Hence, the molecular photoemission can be regarded as a
14857 natural double-slit experiment(1): coherent electron emission
14858 originates from two identical sites, and should give rise to
14859 characteristic interference patterns(2). However, the quantum coherence
14860 is obscured if the two possible symmetry states of the electronic
14861 wavefunction ('gerade' and 'ungerade') are degenerate; the sum of the
14862 two exactly resembles the distinguishable, incoherent emission from two
14863 localized core sites. Here we observe the coherence of core electrons
14864 in N-2 through a direct measurement of the interference exhibited in
14865 their emission. We also explore the gradual transition to a
14866 symmetry-broken system of localized electrons by comparing different
14867 isotope-substituted species - a phenomenon analogous to the acquisition
14868 of partial 'which-way' information in macroscopic double-slit
14869 experiments(3).
14870 C1 Max Planck Gesell, Fritz Haber Inst, D-14195 Berlin, Germany.
14871 Max Born Inst Nichtlineare Opt & Kurzzeitspektros, D-12489 Berlin, Germany.
14872 CALTECH, Pasadena, CA 91125 USA.
14873 RP Becker, U, Max Planck Gesell, Fritz Haber Inst, D-14195 Berlin, Germany.
14874 EM becker_u@fhi-berlin.mpg.de
14875 NR 33
14876 TC 0
14877 PU NATURE PUBLISHING GROUP
14878 PI LONDON
14879 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14880 SN 0028-0836
14881 J9 NATURE
14882 JI Nature
14883 PD SEP 29
14884 PY 2005
14885 VL 437
14886 IS 7059
14887 BP 711
14888 EP 715
14889 PG 5
14890 SC Multidisciplinary Sciences
14891 GA 968JD
14892 UT ISI:000232157900047
14893 ER
14894
14895 PT J
14896 AU Zou, XD
14897 Conradsson, T
14898 Klingstedt, M
14899 Dadachov, MS
14900 O'Keeffe, M
14901 TI A mesoporous germanium oxide with crystalline pore walls and its chiral
14902 derivative
14903 SO NATURE
14904 LA English
14905 DT Article
14906 ID MOLECULAR-SIEVE; CHANNELS; SURFACES; DENSITY; SILICA
14907 AB Microporous oxides are inorganic materials with wide applications in
14908 separations, ion exchange and catalysis(1-3). In such materials, an
14909 important determinant of pore size is the number of M ( where M = Si,
14910 Ge and so on) atoms in the rings delineating the channels(1). The
14911 important faujasite structure exhibits 12-ring structures while those
14912 of zeolites(4,5), germanates(6-8) and other(8) materials can be much
14913 larger. Recent attention has focused on mesoporous materials with
14914 larger pores of nanometre scale(9-11); however, with the exception of
14915 an inorganic - organic hybrid(12), these have amorphous pore walls,
14916 limiting many applications. Chiral porous oxides are particularly
14917 desirable for enantioselective sorption and catalysis(13). However,
14918 they are very rare in microporous(14,15) and mesoporous(16) materials.
14919 Here we describe a mesoporous germanium oxide, SU-M, with gyroidal
14920 channels separated by crystalline walls that lie about the G ( gyroid)
14921 minimal surface as in the mesoporous MCM-48 (ref. 9). It has the
14922 largest primitive cell and lowest framework density of any inorganic
14923 material and channels that are defined by 30-rings. One of the two
14924 gyroidal channel systems of SU-M can be filled with additional oxide,
14925 resulting in a mesoporous crystal (SU-MB) with chiral channels.
14926 C1 Stockholm Univ, SE-10691 Stockholm, Sweden.
14927 Corpuscular Inc, Mahopac, NY 10541 USA.
14928 Arizona State Univ, Dept Chem & Biochem, Tempe, AZ 85287 USA.
14929 RP Zou, XD, Stockholm Univ, SE-10691 Stockholm, Sweden.
14930 EM zou@struc.su.se
14931 NR 29
14932 TC 1
14933 PU NATURE PUBLISHING GROUP
14934 PI LONDON
14935 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14936 SN 0028-0836
14937 J9 NATURE
14938 JI Nature
14939 PD SEP 29
14940 PY 2005
14941 VL 437
14942 IS 7059
14943 BP 716
14944 EP 719
14945 PG 4
14946 SC Multidisciplinary Sciences
14947 GA 968JD
14948 UT ISI:000232157900048
14949 ER
14950
14951 PT J
14952 AU Elbelrhiti, H
14953 Claudin, P
14954 Andreotti, B
14955 TI Field evidence for surface-wave-induced instability of sand dunes
14956 SO NATURE
14957 LA English
14958 DT Article
14959 ID BARCHAN DUNES; DYNAMICS; MODEL; WIND
14960 AB Field studies of barchans - crescent- shaped dunes that propagate over
14961 solid ground under conditions of unidirectional wind(1) - have long
14962 focused on the investigation of an equilibrium between sand transport
14963 by wind and the control of air flow by dune topography(2-4), which are
14964 thought to control dune morphology and kinematics(5-7). Because of the
14965 long timescale involved, however, the underlying dynamic processes
14966 responsible for the evolution of dune fields remain poorly
14967 understood(8). Here we combine data from a three-year field study in
14968 the Moroccan Sahara with a model study to show that barchans are
14969 fundamentally unstable and do not necessarily behave like stable
14970 solitary waves, as suggested previously(9-12). We find that dune
14971 collisions and changes in wind direction destabilize the dunes and
14972 generate surface waves on the barchans. Because the resulting surface
14973 waves propagate at a higher speed than the dunes themselves, they can
14974 produce a series of new barchans of elementary size by breaking the
14975 horns of large dunes. The creation of these new dunes provides a
14976 mechanism for sand loss that prevents dune fields from merging into a
14977 single giant dune and therefore plays a fundamental role in the control
14978 of size selection and the development of dune patterns.
14979 C1 Phys & Mecan Milieux Heterogenes Lab, CNRS, UMR 7636, F-75005 Paris, France.
14980 Univ Ibn Zohr, Dept Geol, Agadir 80000, Morocco.
14981 RP Andreotti, B, Phys & Mecan Milieux Heterogenes Lab, CNRS, UMR 7636, 10
14982 Rue Vauquelin, F-75005 Paris, France.
14983 EM andreotti@pmmh.espci.fr
14984 NR 18
14985 TC 0
14986 PU NATURE PUBLISHING GROUP
14987 PI LONDON
14988 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
14989 SN 0028-0836
14990 J9 NATURE
14991 JI Nature
14992 PD SEP 29
14993 PY 2005
14994 VL 437
14995 IS 7059
14996 BP 720
14997 EP 723
14998 PG 4
14999 SC Multidisciplinary Sciences
15000 GA 968JD
15001 UT ISI:000232157900049
15002 ER
15003
15004 PT J
15005 AU Kessel, R
15006 Schmidt, MW
15007 Ulmer, P
15008 Pettke, T
15009 TI Trace element signature of subduction-zone fluids, melts and
15010 supercritical liquids at 120-180 km depth
15011 SO NATURE
15012 LA English
15013 DT Article
15014 ID HIGH-PRESSURE EXPERIMENTS; PHASE-RELATIONS; UPPER-MANTLE; ARC MAGMAS;
15015 GPA; CONSTRAINTS; CRUST; SLAB; CLINOPYROXENE; CONSEQUENCES
15016 AB Fluids and melts liberated from subducting oceanic crust recycle
15017 lithophile elements back into the mantle wedge, facilitate melting and
15018 ultimately lead to prolific subduction-zone arc volcanism(1,2). The
15019 nature and composition of the mobile phases generated in the subducting
15020 slab at high pressures have, however, remained largely unknown(3-7).
15021 Here we report direct LA-ICPMS measurements of the composition of
15022 fluids and melts equilibrated with a basaltic eclogite at pressures
15023 equivalent to depths in the Earth of 120 - 180 km and temperatures of
15024 700 - 1,200 degrees C. The resultant liquid/mineral partition
15025 coefficients constrain the recycling rates of key elements. The
15026 dichotomy of dehydration versus melting at 120 km depth is expressed
15027 through contrasting behaviour of many trace elements (U/Th, Sr, Ba, Be
15028 and the light rare-earth elements). At pressures equivalent to 180 km
15029 depth, however, a supercritical liquid with melt-like solubilities for
15030 the investigated trace elements is observed, even at low temperatures.
15031 This mobilizes most of the key trace elements ( except the heavy
15032 rare-earth elements, Y and Sc) and thus limits fluid-phase transfer of
15033 geochemical signatures in subduction zones to pressures less than 6 GPa.
15034 C1 Hebrew Univ Jerusalem, Inst Earth Sci, IL-91904 Jerusalem, Israel.
15035 ETH Zentrum, Inst Mineral & Petrog, CH-8092 Zurich, Switzerland.
15036 RP Kessel, R, Hebrew Univ Jerusalem, Inst Earth Sci, IL-91904 Jerusalem,
15037 Israel.
15038 EM kessel@vms.huji.ac.il
15039 NR 32
15040 TC 0
15041 PU NATURE PUBLISHING GROUP
15042 PI LONDON
15043 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15044 SN 0028-0836
15045 J9 NATURE
15046 JI Nature
15047 PD SEP 29
15048 PY 2005
15049 VL 437
15050 IS 7059
15051 BP 724
15052 EP 727
15053 PG 4
15054 SC Multidisciplinary Sciences
15055 GA 968JD
15056 UT ISI:000232157900050
15057 ER
15058
15059 PT J
15060 AU Allen, JT
15061 Brown, L
15062 Sanders, R
15063 Moore, CM
15064 Mustard, A
15065 Fielding, S
15066 Lucas, M
15067 Rixen, M
15068 Savidge, G
15069 Henson, S
15070 Mayor, D
15071 TI Diatom carbon export enhanced by silicate upwelling in the northeast
15072 Atlantic
15073 SO NATURE
15074 LA English
15075 DT Article
15076 ID ICELAND-FAEROES FRONT; ALMERIA-ORAN FRONT; MESOSCALE SUBDUCTION; SPRING
15077 BLOOM; PHYTOPLANKTON; OCEAN; NUTRIENTS; PACIFIC; JUNE
15078 AB Diatoms are unicellular or chain-forming phytoplankton that use silicon
15079 ( Si) in cell wall construction. Their survival during periods of
15080 apparent nutrient exhaustion enhances carbon sequestration in frontal
15081 regions of the northern North Atlantic. These regions may therefore
15082 have a more important role in the 'biological pump' than they have
15083 previously been attributed(1), but how this is achieved is unknown.
15084 Diatom growth depends on silicate availability, in addition to nitrate
15085 and phosphate(2,3), but northern Atlantic waters are richer in nitrate
15086 than silicate(4). Following the spring stratification, diatoms are the
15087 first phytoplankton to bloom(2,5). Once silicate is exhausted, diatom
15088 blooms subside in a major export event(6,7). Here we show that, with
15089 nitrate still available for new production, the diatom bloom is
15090 prolonged where there is a periodic supply of new silicate:
15091 specifically, diatoms thrive by 'mining' deep-water silicate brought to
15092 the surface by an unstable ocean front. The mechanism we present here
15093 is not limited to silicate fertilization; similar mechanisms could
15094 support nitrate-,phosphate- or iron-limited frontal regions in oceans
15095 elsewhere.
15096 C1 Natl Oceanog Ctr, Southampton SO14 3ZH, Hants, England.
15097 N Highland Coll, UHI Millenium Inst, Environm Res Inst, Thurso KW14 7JD, Caithness, Scotland.
15098 Univ St Andrews, Sch Geog & Geosci, St Andrews KY16 9AJ, Fife, Scotland.
15099 NATO Undersea Res Ctr, I-19138 La Spezia, Italy.
15100 Queens Univ Belfast, Marine Lab, Portaferry BT22 1PF, North Ireland.
15101 RP Allen, JT, Natl Oceanog Ctr, Southampton SO14 3ZH, Hants, England.
15102 EM jta@noc.soton.ac.uk
15103 NR 30
15104 TC 0
15105 PU NATURE PUBLISHING GROUP
15106 PI LONDON
15107 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15108 SN 0028-0836
15109 J9 NATURE
15110 JI Nature
15111 PD SEP 29
15112 PY 2005
15113 VL 437
15114 IS 7059
15115 BP 728
15116 EP 732
15117 PG 5
15118 SC Multidisciplinary Sciences
15119 GA 968JD
15120 UT ISI:000232157900051
15121 ER
15122
15123 PT J
15124 AU Hu, DL
15125 Bush, JWM
15126 TI Meniscus-climbing insects
15127 SO NATURE
15128 LA English
15129 DT Article
15130 ID WATER-SURFACE; LOCOMOTION; PARTICLES
15131 AB Water-walking insects and spiders rely on surface tension for static
15132 weight support(1,2) and use a variety of means to propel themselves
15133 along the surface(3-8). To pass from the water surface to land, they
15134 must contend with the slippery slopes of the menisci that border the
15135 water's edge. The ability to climb menisci is a skill exploited by
15136 water-walking insects as they seek land in order to lay eggs or avoid
15137 predators(4); moreover, it was a necessary adaptation for their
15138 ancestors as they evolved from terrestrials to live exclusively on the
15139 water surface(3). Many millimetre-scale water-walking insects are
15140 unable to climb menisci using their traditional means of
15141 propulsion(2,3,9). Through a combined experimental and theoretical
15142 study, here we investigate the meniscus-climbing technique that such
15143 insects use. By assuming a fixed body posture, they deform the water
15144 surface in order to generate capillary forces(10-13): they thus propel
15145 themselves laterally without moving their appendages. We develop a
15146 theoretical model for this novel mode of propulsion and use it to
15147 rationalize the climbers' characteristic body postures and predict
15148 climbing trajectories consistent with those reported here and
15149 elsewhere(3).
15150 C1 MIT, Dept Math, Cambridge, MA 02139 USA.
15151 RP Bush, JWM, MIT, Dept Math, Cambridge, MA 02139 USA.
15152 EM bush@math.mit.edu
15153 NR 25
15154 TC 0
15155 PU NATURE PUBLISHING GROUP
15156 PI LONDON
15157 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15158 SN 0028-0836
15159 J9 NATURE
15160 JI Nature
15161 PD SEP 29
15162 PY 2005
15163 VL 437
15164 IS 7059
15165 BP 733
15166 EP 736
15167 PG 4
15168 SC Multidisciplinary Sciences
15169 GA 968JD
15170 UT ISI:000232157900052
15171 ER
15172
15173 PT J
15174 AU Whiten, A
15175 Horner, V
15176 de Waal, FBM
15177 TI Conformity to cultural norms of tool use in chimpanzees
15178 SO NATURE
15179 LA English
15180 DT Article
15181 ID CAPTIVE CHIMPANZEES; TRANSMISSION; INFORMATION; EVOLUTION
15182 AB Rich circumstantial evidence suggests that the extensive behavioural
15183 diversity recorded in wild great apes reflects a complexity of cultural
15184 variation unmatched by species other than our own(1-12). However, the
15185 capacity for cultural transmission assumed by this interpretation has
15186 remained difficult to test rigorously in the field, where the scope for
15187 controlled experimentation is limited(13-16). Here we show that
15188 experimentally introduced technologies will spread within different ape
15189 communities. Unobserved by group mates, we first trained a high-ranking
15190 female from each of two groups of captive chimpanzees to adopt one of
15191 two different tool-use techniques for obtaining food from the same
15192 'Pan-pipe' apparatus, then re-introduced each female to her respective
15193 group. All but two of 32 chimpanzees mastered the new technique under
15194 the influence of their local expert, whereas none did so in a third
15195 population lacking an expert. Most chimpanzees adopted the method
15196 seeded in their group, and these traditions continued to diverge over
15197 time. A subset of chimpanzees that discovered the alternative method
15198 nevertheless went on to match the predominant approach of their
15199 companions, showing a conformity bias that is regarded as a hallmark of
15200 human culture(11).
15201 C1 Univ St Andrews, Sch Psychol, Ctr Social Learning & Cognit Evolut, St Andrews KY16 9JP, Fife, Scotland.
15202 Emory Univ, Yerkes Natl Primate Res Ctr, Field Stn, Atlanta, GA 30322 USA.
15203 RP Whiten, A, Univ St Andrews, Sch Psychol, Ctr Social Learning & Cognit
15204 Evolut, St Andrews KY16 9JP, Fife, Scotland.
15205 EM a.whiten@st-and.ac.uk
15206 NR 30
15207 TC 0
15208 PU NATURE PUBLISHING GROUP
15209 PI LONDON
15210 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15211 SN 0028-0836
15212 J9 NATURE
15213 JI Nature
15214 PD SEP 29
15215 PY 2005
15216 VL 437
15217 IS 7059
15218 BP 737
15219 EP 740
15220 PG 4
15221 SC Multidisciplinary Sciences
15222 GA 968JD
15223 UT ISI:000232157900053
15224 ER
15225
15226 PT J
15227 AU Du, LQ
15228 Poovaiah, BW
15229 TI Ca2+/calmodulin is critical for brassinosteroid biosynthesis and plant
15230 growth
15231 SO NATURE
15232 LA English
15233 DT Article
15234 ID TRANSCRIPTION ACTIVATORS; ARABIDOPSIS-DET3 MUTANT; LIGHT; CALMODULIN;
15235 RECEPTOR; PROTEIN; GENE; KINASE; FAMILY; EXPRESSION
15236 AB Brassinosteroids are plant-specific steroid hormones(1,2) that have an
15237 important role in coupling environmental factors, especially light,
15238 with plant growth and development(3). How the endogenous
15239 brassinosteroids change in response to environmental stimuli is largely
15240 unknown. Ca2+/calmodulin has an essential role in sensing and
15241 transducing environmental stimuli(4,5). Arabidopsis DWARF1 (DWF1) is
15242 responsible for an early step in brassinosteroid biosynthesis that
15243 converts 24-methylenecholesterol to campesterol(6,7). Here we show that
15244 DWF1 is a Ca2+/calmodulin-binding protein and this binding is critical
15245 for its function. Molecular genetic analysis using site-directed and
15246 deletion mutants revealed that loss of calmodulin binding completely
15247 abolished the function of DWF1 in planta, whereas partial loss of
15248 calmodulin binding resulted in a partial dwarf phenotype in
15249 complementation studies. These results provide direct proof that
15250 Ca2+/calmodulin-mediated signalling has a critical role in controlling
15251 the function of DWF1. Furthermore, we observed that DWF1 orthologues
15252 from other plants have a similar Ca2+/calmodulin-binding domain,
15253 implying that Ca2+/calmodulin regulation of DWF1 and its homologues is
15254 common in plants. These results raise the possibility of producing
15255 size-engineered crops by altering the Ca2+/calmodulin-binding property
15256 of their DWF1 orthologues.
15257 C1 Washington State Univ, Ctr Integrated Biotechnol, Pullman, WA 99164 USA.
15258 Washington State Univ, Dept Hort, Pullman, WA 99164 USA.
15259 RP Poovaiah, BW, Washington State Univ, Ctr Integrated Biotechnol,
15260 Pullman, WA 99164 USA.
15261 EM poovaiah@wsu.edu
15262 NR 29
15263 TC 0
15264 PU NATURE PUBLISHING GROUP
15265 PI LONDON
15266 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15267 SN 0028-0836
15268 J9 NATURE
15269 JI Nature
15270 PD SEP 29
15271 PY 2005
15272 VL 437
15273 IS 7059
15274 BP 741
15275 EP 745
15276 PG 5
15277 SC Multidisciplinary Sciences
15278 GA 968JD
15279 UT ISI:000232157900054
15280 ER
15281
15282 PT J
15283 AU Gordon, MD
15284 Dionne, MS
15285 Schneider, DS
15286 Nusse, R
15287 TI WntD is a feedback inhibitor of Dorsal/NF-kappa B in Drosophila
15288 development and immunity
15289 SO NATURE
15290 LA English
15291 DT Article
15292 ID SIGNALING PATHWAY; NUCLEAR IMPORT; TOLL; HOST; ACTIVATION; PROTEIN;
15293 EMBRYO; GENE; MELANOGASTER; MORPHOGEN
15294 AB Regulating the nuclear factor-kappa B (NF-kappa B) family of
15295 transcription factors is of critical importance to animals, with
15296 consequences of misregulation that include cancer, chronic inflammatory
15297 diseases and developmental defects(1). Studies in Drosophila
15298 melanogaster have proved fruitful in determining the signals used to
15299 control NF-kappa B proteins, beginning with the discovery that the
15300 Toll/NF-kappa B pathway, in addition to patterning the dorsal - ventral
15301 axis of the fly embryo, defines a major component of the innate immune
15302 response in both Drosophila and mammals(2,3). Here, we characterize the
15303 Drosophila wntD (Wnt inhibitor of Dorsal) gene. We show that WntD acts
15304 as a feedback inhibitor of the NF-kappa B homologue Dorsal during both
15305 embryonic patterning and the innate immune response to infection. wntD
15306 expression is under the control of Toll/Dorsal signalling, and
15307 increased levels of WntD block Dorsal nuclear accumulation, even in the
15308 absence of the I kappa B homologue Cactus. The WntD signal is
15309 independent of the common Wnt signalling component Armadillo
15310 (beta-catenin). By engineering a gene knockout, we show that wntD
15311 loss-of-function mutants have immune defects and exhibit increased
15312 levels of Toll/Dorsal signalling. Furthermore, the wntD mutant
15313 phenotype is suppressed by loss of zygotic dorsal. These results
15314 describe the first secreted feedback antagonist of Toll signalling, and
15315 demonstrate a novel Wnt activity in the fly.
15316 C1 Stanford Univ, Sch Med, Beckman Ctr, Howard Hughes Med Inst,Dept Dev Biol, Stanford, CA 94305 USA.
15317 Stanford Univ, Sch Med, Dept Microbiol & Immunol, Stanford, CA 94305 USA.
15318 RP Nusse, R, Stanford Univ, Sch Med, Beckman Ctr, Howard Hughes Med
15319 Inst,Dept Dev Biol, Stanford, CA 94305 USA.
15320 EM rnusse@stanford.edu
15321 NR 30
15322 TC 0
15323 PU NATURE PUBLISHING GROUP
15324 PI LONDON
15325 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15326 SN 0028-0836
15327 J9 NATURE
15328 JI Nature
15329 PD SEP 29
15330 PY 2005
15331 VL 437
15332 IS 7059
15333 BP 746
15334 EP 749
15335 PG 4
15336 SC Multidisciplinary Sciences
15337 GA 968JD
15338 UT ISI:000232157900055
15339 ER
15340
15341 PT J
15342 AU Xavier, KB
15343 Bassler, BL
15344 TI Interference with Al-2-mediated bacterial cell-cell communication
15345 SO NATURE
15346 LA English
15347 DT Article
15348 ID QUORUM-SENSING SIGNAL; VIBRIO-HARVEYI; SALMONELLA-TYPHIMURIUM;
15349 ESCHERICHIA-COLI; EXPRESSION; CHOLERAE; LUMINESCENCE; SEQUENCE; AL-2;
15350 FAMILY
15351 AB Bacteria communicate by means of chemical signal molecules called
15352 autoinducers. This process, called quorum sensing, allows bacteria to
15353 count the members in the community and to alter gene expression
15354 synchronously across the population. Quorum-sensing-controlled
15355 processes are often crucial for successful bacterial - host
15356 relationships - both symbiotic and pathogenic. Most quorum-sensing
15357 autoinducers promote intraspecies communication, but one autoinducer,
15358 called AI-2, is produced and detected by a wide variety of bacteria and
15359 is proposed to allow interspecies communication(1,2). Here we show that
15360 some species of bacteria can manipulate AI-2 signalling and interfere
15361 with other species' ability to assess and respond correctly to changes
15362 in cell population density. AI-2 signalling, and the interference with
15363 it, could have important ramifications for eukaryotes in the
15364 maintenance of normal microflora and in protection from pathogenic
15365 bacteria.
15366 C1 Princeton Univ, Howard Hughes Med Inst, Dept Mol Biol, Princeton, NJ 08544 USA.
15367 RP Bassler, BL, Princeton Univ, Howard Hughes Med Inst, Dept Mol Biol,
15368 Princeton, NJ 08544 USA.
15369 EM bbassler@molbio.princeton.edu
15370 NR 19
15371 TC 1
15372 PU NATURE PUBLISHING GROUP
15373 PI LONDON
15374 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15375 SN 0028-0836
15376 J9 NATURE
15377 JI Nature
15378 PD SEP 29
15379 PY 2005
15380 VL 437
15381 IS 7059
15382 BP 750
15383 EP 753
15384 PG 4
15385 SC Multidisciplinary Sciences
15386 GA 968JD
15387 UT ISI:000232157900056
15388 ER
15389
15390 PT J
15391 AU Yoshida, H
15392 Kawane, K
15393 Koike, M
15394 Mori, Y
15395 Uchiyama, Y
15396 Nagata, S
15397 TI Phosphatidylserine-dependent engulfment by macrophages of nuclei from
15398 erythroid precursor cells
15399 SO NATURE
15400 LA English
15401 DT Article
15402 ID APOPTOTIC CELLS; ERYTHROPOIETIN RECEPTOR; PLASMA-MEMBRANE; MICE;
15403 DIFFERENTIATION; IDENTIFICATION; PHAGOCYTOSIS; DEFICIENT; INVITRO;
15404 BINDING
15405 AB Definitive erythropoiesis usually occurs in the bone marrow or fetal
15406 liver, where erythroblasts are associated with a central macrophage in
15407 anatomical units called 'blood islands'(1,2). Late in erythropoiesis,
15408 nuclei are expelled from the erythroid precursor cells and engulfed by
15409 the macrophages in the blood island(2,3). Here we show that the nuclei
15410 are engulfed by macrophages only after they are disconnected from
15411 reticulocytes, and that phosphatidylserine, which is often used as an
15412 'eat me' signal for apoptotic cells, is also used for the engulfment of
15413 nuclei expelled from erythroblasts. We investigated the mechanism
15414 behind the enucleation and engulfment processes by isolating late-stage
15415 erythroblasts from the spleens of phlebotomized mice. When these
15416 erythroblasts were cultured, the nuclei protruded spontaneously from
15417 the erythroblasts. A weak physical force could disconnect the nuclei
15418 from the reticulocytes. The released nuclei contained an undetectable
15419 level of ATP, and quickly exposed phosphatidylserine on their surface.
15420 Fetal liver macrophages efficiently engulfed the nuclei; masking the
15421 phosphatidylserine on the nuclei with the dominant-negative form of
15422 milk-fat-globule EGF8 (MFG-E8) prevented this engulfment.
15423 C1 Osaka Univ, Grad Sch Med, Dept Genet, Suita, Osaka 5650871, Japan.
15424 Osaka Univ, Grad Sch Med, Dept Cell Biol & Neurosci, Suita, Osaka 5650871, Japan.
15425 Osaka Univ, Grad Sch Frontier Biosci, Integrated Biol Labs, Genet Lab, Suita, Osaka 5650871, Japan.
15426 Japan Sci & Technol Corp, Core Res Evolut Sci & Technol, Suita, Osaka 5650871, Japan.
15427 Sakura Mot Picture Co Ltd, Shibuya Ku, Tokyo 1510051, Japan.
15428 RP Nagata, S, Osaka Univ, Grad Sch Med, Dept Genet, 2-2 Yamadaoka, Suita,
15429 Osaka 5650871, Japan.
15430 EM Nagata@genetic.med.osaka-u.ac.jp
15431 NR 30
15432 TC 0
15433 PU NATURE PUBLISHING GROUP
15434 PI LONDON
15435 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15436 SN 0028-0836
15437 J9 NATURE
15438 JI Nature
15439 PD SEP 29
15440 PY 2005
15441 VL 437
15442 IS 7059
15443 BP 754
15444 EP 758
15445 PG 5
15446 SC Multidisciplinary Sciences
15447 GA 968JD
15448 UT ISI:000232157900057
15449 ER
15450
15451 PT J
15452 AU Pascual, G
15453 Fong, AL
15454 Ogawa, S
15455 Gamliel, A
15456 Li, AC
15457 Perissi, V
15458 Rose, DW
15459 Willson, TM
15460 Rosenfeld, MG
15461 Glass, CK
15462 TI A SUMOylation-dependent pathway mediates transrepression of
15463 inflammatory response genes by PPAR-gamma
15464 SO NATURE
15465 LA English
15466 DT Article
15467 ID ACTIVATED RECEPTOR-GAMMA; OXIDE SYNTHASE GENE; MACROPHAGE ACTIVATION;
15468 TRANSCRIPTION FACTORS; COREPRESSOR COMPLEX; ANDROGEN-RECEPTOR; NUCLEAR
15469 RECEPTORS; CO-REPRESSOR; PROTEINS; LIGAND
15470 AB Peroxisome proliferator-activated receptor-gamma (PPAR-gamma) has
15471 essential roles in adipogenesis and glucose homeostasis, and is a
15472 molecular target of insulin-sensitizing drugs(1-3). Although the
15473 ability of PPAR-gamma agonists to antagonize inflammatory responses by
15474 transrepression of nuclear factor kappa B (NF-kappa B) target genes is
15475 linked to antidiabetic(4) and antiatherogenic actions(5), the
15476 mechanisms remain poorly understood. Here we report the identification
15477 of a molecular pathway by which PPAR-gamma represses the
15478 transcriptional activation of inflammatory response genes in mouse
15479 macrophages. The initial step of this pathway involves ligand-dependent
15480 SUMOylation of the PPAR-gamma ligand-binding domain, which targets
15481 PPAR-gamma to nuclear receptor corepressor (NCoR)-histone deacetylase-3
15482 (HDAC3) complexes on inflammatory gene promoters. This in turn prevents
15483 recruitment of the ubiquitylation/19S proteosome machinery that
15484 normally mediates the signal-dependent removal of corepressor complexes
15485 required for gene activation. As a result, NCoR complexes are not
15486 cleared from the promoter and target genes are maintained in a
15487 repressed state. This mechanism provides an explanation for how an
15488 agonist-bound nuclear receptor can be converted from an activator of
15489 transcription to a promoter-specific repressor of NF-kappa B target
15490 genes that regulate immunity and homeostasis.
15491 C1 Univ Calif San Diego, Dept Cellular & Mol Med, La Jolla, CA 92093 USA.
15492 Univ Calif San Diego, Howard Hughes Med Inst, La Jolla, CA 92093 USA.
15493 Univ Calif San Diego, Dept Med, La Jolla, CA 92093 USA.
15494 Univ Calif San Diego, Biomed Sci Grad Program, La Jolla, CA 92093 USA.
15495 GlaxoSmithKline Inc, Res Triangle Pk, NC 27709 USA.
15496 RP Glass, CK, Univ Calif San Diego, Dept Cellular & Mol Med, 9500 Gilman
15497 Dr, La Jolla, CA 92093 USA.
15498 EM cglass@ucsd.edu
15499 NR 30
15500 TC 0
15501 PU NATURE PUBLISHING GROUP
15502 PI LONDON
15503 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15504 SN 0028-0836
15505 J9 NATURE
15506 JI Nature
15507 PD SEP 29
15508 PY 2005
15509 VL 437
15510 IS 7059
15511 BP 759
15512 EP 763
15513 PG 5
15514 SC Multidisciplinary Sciences
15515 GA 968JD
15516 UT ISI:000232157900058
15517 ER
15518
15519 PT J
15520 AU Nybakken, GE
15521 Oliphant, T
15522 Johnson, S
15523 Burke, S
15524 Diamond, MS
15525 Fremont, DH
15526 TI Structural basis of West Nile virus neutralization by a therapeutic
15527 antibody
15528 SO NATURE
15529 LA English
15530 DT Article
15531 ID DENGUE VIRUS; ENVELOPE PROTEIN; ENCEPHALITIS-VIRUS; MEMBRANE-FUSION;
15532 DOMAIN-III; DISSEMINATED INFECTION; MONOCLONAL-ANTIBODY; BINDING;
15533 CELLS; GLYCOPROTEIN
15534 AB West Nile virus is a mosquito-borne flavivirus closely related to the
15535 human epidemic-causing dengue, yellow fever and Japanese encephalitis
15536 viruses(1). In establishing infection these icosahedral viruses undergo
15537 endosomal membrane fusion catalysed by envelope glycoprotein
15538 rearrangement of the putative receptor-binding domain III (DIII) and
15539 exposure of the hydrophobic fusion loop(2-4). Humoral immunity has an
15540 essential protective function early in the course of West Nile virus
15541 infection(5,6). Here, we investigate the mechanism of neutralization by
15542 the E16 monoclonal antibody that specifically binds DIII. Structurally,
15543 the E16 antibody Fab fragment engages 16 residues positioned on four
15544 loops of DIII, a consensus neutralizing epitope sequence conserved in
15545 West Nile virus and distinct in other flaviviruses. The E16 epitope
15546 protrudes from the surface of mature virions in three distinct
15547 environments(7), and docking studies predict Fab binding will leave
15548 fivefold clustered epitopes exposed. We also show that E16 inhibits
15549 infection primarily at a step after viral attachment, potentially by
15550 blocking envelope glycoprotein conformational changes. Collectively,
15551 our results suggest that a vaccine strategy targeting the dominant DIII
15552 epitope may elicit safe and effective immune responses against
15553 flaviviral diseases.
15554 C1 Washington Univ, Sch Med, Dept Pathol & Immunol, St Louis, MO 63110 USA.
15555 Washington Univ, Sch Med, Dept Mol Microbiol, St Louis, MO 63110 USA.
15556 Washington Univ, Sch Med, Dept Biochem & Mol Biophys, St Louis, MO 63110 USA.
15557 Washington Univ, Sch Med, Dept Med, St Louis, MO 63110 USA.
15558 MacroGenics, Rockville, MD 20850 USA.
15559 RP Fremont, DH, Washington Univ, Sch Med, Dept Pathol & Immunol, St Louis,
15560 MO 63110 USA.
15561 EM Fremont@wustl.edu
15562 NR 30
15563 TC 0
15564 PU NATURE PUBLISHING GROUP
15565 PI LONDON
15566 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15567 SN 0028-0836
15568 J9 NATURE
15569 JI Nature
15570 PD SEP 29
15571 PY 2005
15572 VL 437
15573 IS 7059
15574 BP 764
15575 EP 768
15576 PG 5
15577 SC Multidisciplinary Sciences
15578 GA 968JD
15579 UT ISI:000232157900059
15580 ER
15581
15582 PT J
15583 AU D'Autreaux, B
15584 Tucker, NP
15585 Dixon, R
15586 Spiro, S
15587 TI A non-haem iron centre in the transcription factor NorR senses nitric
15588 oxide
15589 SO NATURE
15590 LA English
15591 DT Article
15592 ID ESCHERICHIA-COLI; NITROSYL COMPLEXES; ELECTRONIC-STRUCTURE;
15593 SIGNAL-TRANSDUCTION; PROTEIN; ACTIVATION; BINDING; FLAVORUBREDOXIN;
15594 INHIBITION; REDUCTION
15595 AB Nitric oxide ( NO), synthesized in eukaryotes by the NO synthases, has
15596 multiple roles in signalling pathways and in protection against
15597 pathogens(1,2). Pathogenic microorganisms have apparently evolved
15598 defence mechanisms that counteract the effects of NO and related
15599 reactive nitrogen species. Regulatory proteins that sense NO mediate
15600 the primary response to NO and nitrosative stress(3-9). The only
15601 regulatory protein in enteric bacteria known to serve exclusively as an
15602 NO-responsive transcription factor is the enhancer binding protein NorR
15603 (refs 9 - 11). In Escherichia coli, NorR activates the transcription of
15604 the nor VW genes encoding a flavorubredoxin (FlRd) and an associated
15605 flavoprotein, respectively, which together have NADH-dependent NO
15606 reductase activity(10,12-14). The NO-responsive activity of NorR raises
15607 important questions concerning the mechanism of NO sensing. Here we
15608 show that the regulatory domain of NorR contains a mononuclear non-haem
15609 iron centre, which reversibly binds NO. Binding of NO stimulates the
15610 ATPase activity of NorR, enabling the activation of transcription by
15611 RNA polymerase. The mechanism of NorR reveals an unprecedented
15612 biological role for a non-haem mononitrosyl - iron complex in NO
15613 sensing.
15614 C1 John Innes Ctr Plant Sci Res, Norwich NR4 7UH, Norfolk, England.
15615 Georgia Inst Technol, Sch Biol, Atlanta, GA 30332 USA.
15616 RP Spiro, S, John Innes Ctr Plant Sci Res, Norwich NR4 7UH, Norfolk,
15617 England.
15618 EM stephen.spiro@biology.gatech.edu
15619 NR 30
15620 TC 0
15621 PU NATURE PUBLISHING GROUP
15622 PI LONDON
15623 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15624 SN 0028-0836
15625 J9 NATURE
15626 JI Nature
15627 PD SEP 29
15628 PY 2005
15629 VL 437
15630 IS 7059
15631 BP 769
15632 EP 772
15633 PG 4
15634 SC Multidisciplinary Sciences
15635 GA 968JD
15636 UT ISI:000232157900060
15637 ER
15638
15639 PT J
15640 AU Melton, L
15641 TI Imaging: The big picture
15642 SO NATURE
15643 LA English
15644 DT Article
15645 C1 Novartis Fdn, London, England.
15646 RP Melton, L, Novartis Fdn, London, England.
15647 NR 0
15648 TC 0
15649 PU NATURE PUBLISHING GROUP
15650 PI LONDON
15651 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15652 SN 0028-0836
15653 J9 NATURE
15654 JI Nature
15655 PD SEP 29
15656 PY 2005
15657 VL 437
15658 IS 7059
15659 BP 775
15660 EP +
15661 PG 4
15662 SC Multidisciplinary Sciences
15663 GA 968JD
15664 UT ISI:000232157900061
15665 ER
15666
15667 PT J
15668 AU Reynolds, A
15669 TI Feeling rejected
15670 SO NATURE
15671 LA English
15672 DT Editorial Material
15673 NR 0
15674 TC 0
15675 PU NATURE PUBLISHING GROUP
15676 PI LONDON
15677 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15678 SN 0028-0836
15679 J9 NATURE
15680 JI Nature
15681 PD SEP 29
15682 PY 2005
15683 VL 437
15684 IS 7059
15685 BP 788
15686 EP 788
15687 PG 1
15688 SC Multidisciplinary Sciences
15689 GA 968JD
15690 UT ISI:000232157900062
15691 ER
15692
15693 PT J
15694 AU [Anon]
15695 TI Abstractions
15696 SO NATURE
15697 LA English
15698 DT Editorial Material
15699 NR 0
15700 TC 0
15701 PU NATURE PUBLISHING GROUP
15702 PI LONDON
15703 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15704 SN 0028-0836
15705 J9 NATURE
15706 JI Nature
15707 PD SEP 22
15708 PY 2005
15709 VL 437
15710 IS 7058
15711 BP XI
15712 EP XI
15713 PG 1
15714 SC Multidisciplinary Sciences
15715 GA 966FF
15716 UT ISI:000232004800001
15717 ER
15718
15719 PT J
15720 AU Stahl, D
15721 TI Making the paper
15722 SO NATURE
15723 LA English
15724 DT News Item
15725 NR 0
15726 TC 0
15727 PU NATURE PUBLISHING GROUP
15728 PI LONDON
15729 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15730 SN 0028-0836
15731 J9 NATURE
15732 JI Nature
15733 PD SEP 22
15734 PY 2005
15735 VL 437
15736 IS 7058
15737 BP XI
15738 EP XI
15739 PG 1
15740 SC Multidisciplinary Sciences
15741 GA 966FF
15742 UT ISI:000232004800002
15743 ER
15744
15745 PT J
15746 AU [Anon]
15747 TI Don't keep your distance
15748 SO NATURE
15749 LA English
15750 DT Editorial Material
15751 NR 1
15752 TC 0
15753 PU NATURE PUBLISHING GROUP
15754 PI LONDON
15755 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15756 SN 0028-0836
15757 J9 NATURE
15758 JI Nature
15759 PD SEP 22
15760 PY 2005
15761 VL 437
15762 IS 7058
15763 BP 451
15764 EP 451
15765 PG 1
15766 SC Multidisciplinary Sciences
15767 GA 966FF
15768 UT ISI:000232004800003
15769 ER
15770
15771 PT J
15772 AU [Anon]
15773 TI Value-free nanotech?
15774 SO NATURE
15775 LA English
15776 DT Editorial Material
15777 NR 1
15778 TC 0
15779 PU NATURE PUBLISHING GROUP
15780 PI LONDON
15781 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15782 SN 0028-0836
15783 J9 NATURE
15784 JI Nature
15785 PD SEP 22
15786 PY 2005
15787 VL 437
15788 IS 7058
15789 BP 451
15790 EP 452
15791 PG 2
15792 SC Multidisciplinary Sciences
15793 GA 966FF
15794 UT ISI:000232004800004
15795 ER
15796
15797 PT J
15798 AU [Anon]
15799 TI Science after Katrina
15800 SO NATURE
15801 LA English
15802 DT Editorial Material
15803 NR 1
15804 TC 0
15805 PU NATURE PUBLISHING GROUP
15806 PI LONDON
15807 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15808 SN 0028-0836
15809 J9 NATURE
15810 JI Nature
15811 PD SEP 22
15812 PY 2005
15813 VL 437
15814 IS 7058
15815 BP 452
15816 EP 452
15817 PG 1
15818 SC Multidisciplinary Sciences
15819 GA 966FF
15820 UT ISI:000232004800005
15821 ER
15822
15823 PT J
15824 AU Giles, J
15825 TI Astronomers reject the term 'planet'
15826 SO NATURE
15827 LA English
15828 DT News Item
15829 NR 0
15830 TC 0
15831 PU NATURE PUBLISHING GROUP
15832 PI LONDON
15833 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15834 SN 0028-0836
15835 J9 NATURE
15836 JI Nature
15837 PD SEP 22
15838 PY 2005
15839 VL 437
15840 IS 7058
15841 BP 456
15842 EP 457
15843 PG 2
15844 SC Multidisciplinary Sciences
15845 GA 966FF
15846 UT ISI:000232004800006
15847 ER
15848
15849 PT J
15850 AU Reichhardt, T
15851 TI Planet spotters compete
15852 SO NATURE
15853 LA English
15854 DT News Item
15855 NR 1
15856 TC 0
15857 PU NATURE PUBLISHING GROUP
15858 PI LONDON
15859 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15860 SN 0028-0836
15861 J9 NATURE
15862 JI Nature
15863 PD SEP 22
15864 PY 2005
15865 VL 437
15866 IS 7058
15867 BP 456
15868 EP 456
15869 PG 1
15870 SC Multidisciplinary Sciences
15871 GA 966FF
15872 UT ISI:000232004800007
15873 ER
15874
15875 PT J
15876 AU Wild, J
15877 TI Brain imaging ready to detect terrorists, say neuroscientists
15878 SO NATURE
15879 LA English
15880 DT News Item
15881 NR 0
15882 TC 0
15883 PU NATURE PUBLISHING GROUP
15884 PI LONDON
15885 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15886 SN 0028-0836
15887 J9 NATURE
15888 JI Nature
15889 PD SEP 22
15890 PY 2005
15891 VL 437
15892 IS 7058
15893 BP 457
15894 EP 457
15895 PG 1
15896 SC Multidisciplinary Sciences
15897 GA 966FF
15898 UT ISI:000232004800008
15899 ER
15900
15901 PT J
15902 AU Butler, D
15903 TI Flu researchers slam US agency for hoarding data
15904 SO NATURE
15905 LA English
15906 DT News Item
15907 NR 1
15908 TC 0
15909 PU NATURE PUBLISHING GROUP
15910 PI LONDON
15911 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15912 SN 0028-0836
15913 J9 NATURE
15914 JI Nature
15915 PD SEP 22
15916 PY 2005
15917 VL 437
15918 IS 7058
15919 BP 458
15920 EP 459
15921 PG 2
15922 SC Multidisciplinary Sciences
15923 GA 966FF
15924 UT ISI:000232004800009
15925 ER
15926
15927 PT J
15928 AU Giles, J
15929 TI Industry money skews drug overviews
15930 SO NATURE
15931 LA English
15932 DT News Item
15933 NR 0
15934 TC 0
15935 PU NATURE PUBLISHING GROUP
15936 PI LONDON
15937 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15938 SN 0028-0836
15939 J9 NATURE
15940 JI Nature
15941 PD SEP 22
15942 PY 2005
15943 VL 437
15944 IS 7058
15945 BP 458
15946 EP 459
15947 PG 2
15948 SC Multidisciplinary Sciences
15949 GA 966FF
15950 UT ISI:000232004800010
15951 ER
15952
15953 PT J
15954 AU Schiermeier, Q
15955 TI Hurricane link to climate change is hazy
15956 SO NATURE
15957 LA English
15958 DT News Item
15959 AB A brace of studies indicates that cyclones have increased in strength
15960 over thepast 30 years. Hurricanes have also been linked with global
15961 warming and climate change. However researchers have started to
15962 investigate how oceans interactwith the atmosphere in different parts
15963 of the world, to determine how and whynatural fluctuations favor
15964 different hurricane patterns in different ocean basins.
15965 NR 3
15966 TC 0
15967 PU NATURE PUBLISHING GROUP
15968 PI LONDON
15969 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15970 SN 0028-0836
15971 J9 NATURE
15972 JI Nature
15973 PD SEP 22
15974 PY 2005
15975 VL 437
15976 IS 7058
15977 BP 461
15978 EP 461
15979 PG 1
15980 SC Multidisciplinary Sciences
15981 GA 966FF
15982 UT ISI:000232004800011
15983 ER
15984
15985 PT J
15986 AU Fuyuno, I
15987 TI Lack of lab notes casts doubt on RNA researcher's results
15988 SO NATURE
15989 LA English
15990 DT News Item
15991 ID CELLS
15992 NR 4
15993 TC 0
15994 PU NATURE PUBLISHING GROUP
15995 PI LONDON
15996 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
15997 SN 0028-0836
15998 J9 NATURE
15999 JI Nature
16000 PD SEP 22
16001 PY 2005
16002 VL 437
16003 IS 7058
16004 BP 461
16005 EP 461
16006 PG 1
16007 SC Multidisciplinary Sciences
16008 GA 966FF
16009 UT ISI:000232004800012
16010 ER
16011
16012 PT J
16013 AU Appel, A
16014 TI After Katrina: tracking the toxic flood
16015 SO NATURE
16016 LA English
16017 DT News Item
16018 AB Marine researchers are assessing the safety of fish and shellfish
16019 exposed to toxic flood waters in the Gulf of Mexico following Hurricane
16020 Katrina. The floodwaters are teeming with Escherichia coli and a wide
16021 range of chemicals. A team of scientists collected shrimp, oysters and
16022 Atlantic croakers and sent them to a laboratory to be tested for
16023 bacterial contamination and pollutants. The results are not yet known
16024 and serious attention is being paid to food safety along with concern
16025 that the hurricane has damaged important fish and shellfish stocks.
16026 NR 1
16027 TC 0
16028 PU NATURE PUBLISHING GROUP
16029 PI LONDON
16030 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16031 SN 0028-0836
16032 J9 NATURE
16033 JI Nature
16034 PD SEP 22
16035 PY 2005
16036 VL 437
16037 IS 7058
16038 BP 462
16039 EP 462
16040 PG 1
16041 SC Multidisciplinary Sciences
16042 GA 966FF
16043 UT ISI:000232004800013
16044 ER
16045
16046 PT J
16047 AU Abbott, A
16048 TI Race claims spark fury over Croatia's school curriculum
16049 SO NATURE
16050 LA English
16051 DT News Item
16052 AB The science minister in Croatia has come under fire from Croatian
16053 scientists who believe that their science minister is getting
16054 schoolteachers to promote the view that Croats are only distantly
16055 related to other Slavic populations. Thepilot phase of a new curriculum
16056 has just started in Croatian schools and includes history classes on
16057 the use of scientific techniques to analyse the distant past of human
16058 populations. Geneticists argue against his conclusions and saythat only
16059 one out of the dozen or so genetic markers analyzed revealed that
16060 Croats are more similar to Northern populations than to other Slavs.
16061 NR 1
16062 TC 2
16063 PU NATURE PUBLISHING GROUP
16064 PI LONDON
16065 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16066 SN 0028-0836
16067 J9 NATURE
16068 JI Nature
16069 PD SEP 22
16070 PY 2005
16071 VL 437
16072 IS 7058
16073 BP 463
16074 EP 463
16075 PG 1
16076 SC Multidisciplinary Sciences
16077 GA 966FF
16078 UT ISI:000232004800014
16079 ER
16080
16081 PT J
16082 AU Check, E
16083 TI Left behind
16084 SO NATURE
16085 LA English
16086 DT News Item
16087 NR 0
16088 TC 0
16089 PU NATURE PUBLISHING GROUP
16090 PI LONDON
16091 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16092 SN 0028-0836
16093 J9 NATURE
16094 JI Nature
16095 PD SEP 22
16096 PY 2005
16097 VL 437
16098 IS 7058
16099 BP 467
16100 EP 467
16101 PG 1
16102 SC Multidisciplinary Sciences
16103 GA 966FF
16104 UT ISI:000232004800015
16105 ER
16106
16107 PT J
16108 AU Langenberg, H
16109 TI Inside information
16110 SO NATURE
16111 LA English
16112 DT News Item
16113 ID SOLAR-RADIATION; SURFACE
16114 AB Earth's climate depends strongly on clouds. Heike Langenberg reports on
16115 two satellites that aim to cut through the layered structures of clouds
16116 to see how water droplets and airborne particles, or aerosols are
16117 distributed around the globe.
16118 NR 5
16119 TC 1
16120 PU NATURE PUBLISHING GROUP
16121 PI LONDON
16122 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16123 SN 0028-0836
16124 J9 NATURE
16125 JI Nature
16126 PD SEP 22
16127 PY 2005
16128 VL 437
16129 IS 7058
16130 BP 468
16131 EP 469
16132 PG 2
16133 SC Multidisciplinary Sciences
16134 GA 966FF
16135 UT ISI:000232004800016
16136 ER
16137
16138 PT J
16139 AU Brumfiel, G
16140 TI Back to school
16141 SO NATURE
16142 LA English
16143 DT News Item
16144 NR 0
16145 TC 0
16146 PU NATURE PUBLISHING GROUP
16147 PI LONDON
16148 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16149 SN 0028-0836
16150 J9 NATURE
16151 JI Nature
16152 PD SEP 22
16153 PY 2005
16154 VL 437
16155 IS 7058
16156 BP 470
16157 EP 471
16158 PG 2
16159 SC Multidisciplinary Sciences
16160 GA 966FF
16161 UT ISI:000232004800017
16162 ER
16163
16164 PT J
16165 AU Dalton, R
16166 TI Fishy futures
16167 SO NATURE
16168 LA English
16169 DT News Item
16170 AB George Sugihara has gone from an academic career in biological
16171 oceanography tothe world of high finance, and back again. Now he is
16172 applying the lessons he learned in business to the conservation of fish
16173 stocks.
16174 NR 3
16175 TC 0
16176 PU NATURE PUBLISHING GROUP
16177 PI LONDON
16178 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16179 SN 0028-0836
16180 J9 NATURE
16181 JI Nature
16182 PD SEP 22
16183 PY 2005
16184 VL 437
16185 IS 7058
16186 BP 473
16187 EP 474
16188 PG 2
16189 SC Multidisciplinary Sciences
16190 GA 966FF
16191 UT ISI:000232004800018
16192 ER
16193
16194 PT J
16195 AU Wadman, M
16196 TI Swooping for biotech
16197 SO NATURE
16198 LA English
16199 DT News Item
16200 NR 1
16201 TC 0
16202 PU NATURE PUBLISHING GROUP
16203 PI LONDON
16204 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16205 SN 0028-0836
16206 J9 NATURE
16207 JI Nature
16208 PD SEP 22
16209 PY 2005
16210 VL 437
16211 IS 7058
16212 BP 475
16213 EP 475
16214 PG 1
16215 SC Multidisciplinary Sciences
16216 GA 966FF
16217 UT ISI:000232004800019
16218 ER
16219
16220 PT J
16221 AU Dinerstein, E
16222 Irvin, WR
16223 TI Re-wilding: no need for exotics as natives return
16224 SO NATURE
16225 LA English
16226 DT Letter
16227 C1 World Wildlife Fund, Conservat Sci, Washington, DC 20036 USA.
16228 World Wildlife Fund, US Ecoreg Conservat, Washington, DC 20036 USA.
16229 RP Dinerstein, E, World Wildlife Fund, Conservat Sci, 1250 24th St,NW,
16230 Washington, DC 20036 USA.
16231 NR 1
16232 TC 0
16233 PU NATURE PUBLISHING GROUP
16234 PI LONDON
16235 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16236 SN 0028-0836
16237 J9 NATURE
16238 JI Nature
16239 PD SEP 22
16240 PY 2005
16241 VL 437
16242 IS 7058
16243 BP 476
16244 EP 476
16245 PG 1
16246 SC Multidisciplinary Sciences
16247 GA 966FF
16248 UT ISI:000232004800020
16249 ER
16250
16251 PT J
16252 AU Shay, S
16253 TI Re-wilding: don't overlook humans living on the plains
16254 SO NATURE
16255 LA English
16256 DT Letter
16257 C1 Washington State Univ, Dept Hist, Pullman, WA 99164 USA.
16258 RP Shay, S, Washington State Univ, Dept Hist, Pullman, WA 99164 USA.
16259 NR 1
16260 TC 1
16261 PU NATURE PUBLISHING GROUP
16262 PI LONDON
16263 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16264 SN 0028-0836
16265 J9 NATURE
16266 JI Nature
16267 PD SEP 22
16268 PY 2005
16269 VL 437
16270 IS 7058
16271 BP 476
16272 EP 476
16273 PG 1
16274 SC Multidisciplinary Sciences
16275 GA 966FF
16276 UT ISI:000232004800021
16277 ER
16278
16279 PT J
16280 AU Tepfer, M
16281 TI How synthetic biology can avoid GMO-style conflicts
16282 SO NATURE
16283 LA English
16284 DT Letter
16285 C1 ICGEB Biosafety Outstn, I-31056 Ca Tron Di Roncade, Italy.
16286 RP Tepfer, M, ICGEB Biosafety Outstn, Via Piovega 23, I-31056 Ca Tron Di
16287 Roncade, Italy.
16288 NR 1
16289 TC 0
16290 PU NATURE PUBLISHING GROUP
16291 PI LONDON
16292 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16293 SN 0028-0836
16294 J9 NATURE
16295 JI Nature
16296 PD SEP 22
16297 PY 2005
16298 VL 437
16299 IS 7058
16300 BP 476
16301 EP 476
16302 PG 1
16303 SC Multidisciplinary Sciences
16304 GA 966FF
16305 UT ISI:000232004800022
16306 ER
16307
16308 PT J
16309 AU Lewis, B
16310 TI Chiropractors start major study of spinal outcomes
16311 SO NATURE
16312 LA English
16313 DT Letter
16314 C1 British Chiropract Assoc, Reading RG1 1QB, Berks, England.
16315 RP Lewis, B, British Chiropract Assoc, Blagrave House,17 Blagrave St,
16316 Reading RG1 1QB, Berks, England.
16317 NR 1
16318 TC 0
16319 PU NATURE PUBLISHING GROUP
16320 PI LONDON
16321 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16322 SN 0028-0836
16323 J9 NATURE
16324 JI Nature
16325 PD SEP 22
16326 PY 2005
16327 VL 437
16328 IS 7058
16329 BP 476
16330 EP 476
16331 PG 1
16332 SC Multidisciplinary Sciences
16333 GA 966FF
16334 UT ISI:000232004800023
16335 ER
16336
16337 PT J
16338 AU Polaszek, A
16339 TI A universal register for animal names
16340 SO NATURE
16341 LA English
16342 DT Editorial Material
16343 C1 Nat Hist Museum, Int Commiss Zool Nomenclature, London SW7 5BD, England.
16344 RP Polaszek, A, Nat Hist Museum, Int Commiss Zool Nomenclature, Cromwell
16345 Rd, London SW7 5BD, England.
16346 NR 0
16347 TC 1
16348 PU NATURE PUBLISHING GROUP
16349 PI LONDON
16350 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16351 SN 0028-0836
16352 J9 NATURE
16353 JI Nature
16354 PD SEP 22
16355 PY 2005
16356 VL 437
16357 IS 7058
16358 BP 477
16359 EP 477
16360 PG 1
16361 SC Multidisciplinary Sciences
16362 GA 966FF
16363 UT ISI:000232004800024
16364 ER
16365
16366 PT J
16367 AU Colinvaux, P
16368 TI Climate change and biodiversity
16369 SO NATURE
16370 LA English
16371 DT Book Review
16372 C1 Marine Biol Lab, Woods Hole, MA 02543 USA.
16373 RP Colinvaux, P, Marine Biol Lab, 7 MBL St, Woods Hole, MA 02543 USA.
16374 NR 1
16375 TC 0
16376 PU NATURE PUBLISHING GROUP
16377 PI LONDON
16378 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16379 SN 0028-0836
16380 J9 NATURE
16381 JI Nature
16382 PD SEP 22
16383 PY 2005
16384 VL 437
16385 IS 7058
16386 BP 479
16387 EP 479
16388 PG 1
16389 SC Multidisciplinary Sciences
16390 GA 966FF
16391 UT ISI:000232004800025
16392 ER
16393
16394 PT J
16395 AU Isaacson, JS
16396 TI Nerve endings: The discovery of the synapse
16397 SO NATURE
16398 LA English
16399 DT Book Review
16400 C1 Univ Calif San Diego, Sch Med, Dept Neurosci, La Jolla, CA 92093 USA.
16401 RP Isaacson, JS, Univ Calif San Diego, Sch Med, Dept Neurosci, La Jolla,
16402 CA 92093 USA.
16403 NR 1
16404 TC 0
16405 PU NATURE PUBLISHING GROUP
16406 PI LONDON
16407 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16408 SN 0028-0836
16409 J9 NATURE
16410 JI Nature
16411 PD SEP 22
16412 PY 2005
16413 VL 437
16414 IS 7058
16415 BP 480
16416 EP 481
16417 PG 2
16418 SC Multidisciplinary Sciences
16419 GA 966FF
16420 UT ISI:000232004800026
16421 ER
16422
16423 PT J
16424 AU Scull, A
16425 TI Lovers and livers: Disease concepts in history
16426 SO NATURE
16427 LA English
16428 DT Book Review
16429 C1 Univ Calif San Diego, Dept Sociol, La Jolla, CA 92093 USA.
16430 RP Scull, A, Univ Calif San Diego, Dept Sociol, 9500 Gilman Dr, La Jolla,
16431 CA 92093 USA.
16432 NR 1
16433 TC 0
16434 PU NATURE PUBLISHING GROUP
16435 PI LONDON
16436 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16437 SN 0028-0836
16438 J9 NATURE
16439 JI Nature
16440 PD SEP 22
16441 PY 2005
16442 VL 437
16443 IS 7058
16444 BP 481
16445 EP 481
16446 PG 1
16447 SC Multidisciplinary Sciences
16448 GA 966FF
16449 UT ISI:000232004800027
16450 ER
16451
16452 PT J
16453 AU Baldocchi, D
16454 TI Environmental science - The carbon cycle under stress
16455 SO NATURE
16456 LA English
16457 DT Editorial Material
16458 C1 Univ Calif Berkeley, Dept Environm Sci Policy & Management, Berkeley, CA 94720 USA.
16459 RP Baldocchi, D, Univ Calif Berkeley, Dept Environm Sci Policy &
16460 Management, 137 Mulford Hall, Berkeley, CA 94720 USA.
16461 EM baldocchi@nature.berkeley.edu
16462 NR 12
16463 TC 0
16464 PU NATURE PUBLISHING GROUP
16465 PI LONDON
16466 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16467 SN 0028-0836
16468 J9 NATURE
16469 JI Nature
16470 PD SEP 22
16471 PY 2005
16472 VL 437
16473 IS 7058
16474 BP 483
16475 EP 484
16476 PG 2
16477 SC Multidisciplinary Sciences
16478 GA 966FF
16479 UT ISI:000232004800028
16480 ER
16481
16482 PT J
16483 AU Liddington, R
16484 Bankston, L
16485 TI Structural biology - Origins of chemical biodefence
16486 SO NATURE
16487 LA English
16488 DT Editorial Material
16489 ID PROTEINS; DECAY
16490 C1 Burnham Inst, Infect & Inflammatory Dis Ctr, La Jolla, CA 92037 USA.
16491 RP Liddington, R, Burnham Inst, Infect & Inflammatory Dis Ctr, 10901 N
16492 Torrey Pines Rd, La Jolla, CA 92037 USA.
16493 EM rlidding@burnham.org
16494 NR 10
16495 TC 1
16496 PU NATURE PUBLISHING GROUP
16497 PI LONDON
16498 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16499 SN 0028-0836
16500 J9 NATURE
16501 JI Nature
16502 PD SEP 22
16503 PY 2005
16504 VL 437
16505 IS 7058
16506 BP 484
16507 EP 485
16508 PG 2
16509 SC Multidisciplinary Sciences
16510 GA 966FF
16511 UT ISI:000232004800029
16512 ER
16513
16514 PT J
16515 AU Elliott, T
16516 TI Earth science - Unleaded high-performance
16517 SO NATURE
16518 LA English
16519 DT Editorial Material
16520 ID SERIES DISEQUILIBRIA; MELT MIGRATION; CONSEQUENCES; RIDGES
16521 C1 Univ Bristol, Dept Earth Sci, Bristol BS8 1RJ, Avon, England.
16522 RP Elliott, T, Univ Bristol, Dept Earth Sci, Queens Rd, Bristol BS8 1RJ,
16523 Avon, England.
16524 EM tim.elliott@bristol.ac.uk
16525 NR 10
16526 TC 0
16527 PU NATURE PUBLISHING GROUP
16528 PI LONDON
16529 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16530 SN 0028-0836
16531 J9 NATURE
16532 JI Nature
16533 PD SEP 22
16534 PY 2005
16535 VL 437
16536 IS 7058
16537 BP 485
16538 EP 486
16539 PG 2
16540 SC Multidisciplinary Sciences
16541 GA 966FF
16542 UT ISI:000232004800030
16543 ER
16544
16545 PT J
16546 AU Kelly, JW
16547 TI Structural biology - Form and function instructions
16548 SO NATURE
16549 LA English
16550 DT Editorial Material
16551 ID BETA-SHEET
16552 C1 Scripps Res Inst, Dept Chem, La Jolla, CA 92037 USA.
16553 RP Kelly, JW, Scripps Res Inst, Dept Chem, La Jolla, CA 92037 USA.
16554 EM jkelly@scripps.edu
16555 NR 8
16556 TC 0
16557 PU NATURE PUBLISHING GROUP
16558 PI LONDON
16559 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16560 SN 0028-0836
16561 J9 NATURE
16562 JI Nature
16563 PD SEP 22
16564 PY 2005
16565 VL 437
16566 IS 7058
16567 BP 486
16568 EP 487
16569 PG 2
16570 SC Multidisciplinary Sciences
16571 GA 966FF
16572 UT ISI:000232004800031
16573 ER
16574
16575 PT J
16576 AU Hartwig, J
16577 TI Synthetic chemistry - Recipes for excess
16578 SO NATURE
16579 LA English
16580 DT Editorial Material
16581 ID MONODENTATE P-LIGANDS; CATALYZED HYDROGENATION; CONVEY ASYMMETRY;
16582 ACHIRAL LIGANDS; MESO LIGANDS; ENANTIOSELECTIVITY; ADDITIVES; MIXTURES
16583 C1 Yale Univ, Dept Chem, New Haven, CT 06520 USA.
16584 RP Hartwig, J, Yale Univ, Dept Chem, POB 208107, New Haven, CT 06520 USA.
16585 EM john.hartwig@yale.edu
16586 NR 12
16587 TC 0
16588 PU NATURE PUBLISHING GROUP
16589 PI LONDON
16590 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16591 SN 0028-0836
16592 J9 NATURE
16593 JI Nature
16594 PD SEP 22
16595 PY 2005
16596 VL 437
16597 IS 7058
16598 BP 487
16599 EP 488
16600 PG 2
16601 SC Multidisciplinary Sciences
16602 GA 966FF
16603 UT ISI:000232004800032
16604 ER
16605
16606 PT J
16607 AU Stapf, S
16608 TI Techniques - Imaging at a distance
16609 SO NATURE
16610 LA English
16611 DT Editorial Material
16612 ID XENON NMR; MRI
16613 C1 Rhein Westfal TH Aachen, Inst Tech Chem & Macromol Chem, D-52074 Aachen, Germany.
16614 RP Stapf, S, Rhein Westfal TH Aachen, Inst Tech Chem & Macromol Chem,
16615 D-52074 Aachen, Germany.
16616 EM sstapf@mc.rwth-aachen.de
16617 NR 8
16618 TC 0
16619 PU NATURE PUBLISHING GROUP
16620 PI LONDON
16621 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16622 SN 0028-0836
16623 J9 NATURE
16624 JI Nature
16625 PD SEP 22
16626 PY 2005
16627 VL 437
16628 IS 7058
16629 BP 488
16630 EP 489
16631 PG 2
16632 SC Multidisciplinary Sciences
16633 GA 966FF
16634 UT ISI:000232004800033
16635 ER
16636
16637 PT J
16638 AU Fishman, MC
16639 Porter, JA
16640 TI Pharmaceuticals - A new grammar for drug discovery
16641 SO NATURE
16642 LA English
16643 DT Article
16644 ID FAMILIAL HYPERCHOLESTEROLEMIA; DROSOPHILA; INHIBITOR; REDUCTASE;
16645 GENETICS; PATHWAY; BETA; MAP
16646 C1 Novartis Inst Biomed Res, Cambridge, MA 02139 USA.
16647 RP Fishman, MC, Novartis Inst Biomed Res, 250 Massachusetts Ave,
16648 Cambridge, MA 02139 USA.
16649 EM mark.fishman@novartis.com
16650 NR 30
16651 TC 0
16652 PU NATURE PUBLISHING GROUP
16653 PI LONDON
16654 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16655 SN 0028-0836
16656 J9 NATURE
16657 JI Nature
16658 PD SEP 22
16659 PY 2005
16660 VL 437
16661 IS 7058
16662 BP 491
16663 EP 493
16664 PG 3
16665 SC Multidisciplinary Sciences
16666 GA 966FF
16667 UT ISI:000232004800034
16668 ER
16669
16670 PT J
16671 AU Frederickson, ME
16672 Greene, MJ
16673 Gordon, DM
16674 TI 'Devil's gardens' bedevilled by ants
16675 SO NATURE
16676 LA English
16677 DT Editorial Material
16678 ID DUROIA-HIRSUTA; ALLELOPATHIC TREE; IRIDOID LACTONE; AMAZON
16679 C1 Stanford Univ, Dept Biol Sci, Stanford, CA 94305 USA.
16680 Univ Colorado, Dept Biol, Denver, CO 80217 USA.
16681 Hlth Sci Ctr, Denver, CO 80217 USA.
16682 RP Frederickson, ME, Stanford Univ, Dept Biol Sci, Stanford, CA 94305 USA.
16683 EM meganf@stanford.edu
16684 NR 9
16685 TC 0
16686 PU NATURE PUBLISHING GROUP
16687 PI LONDON
16688 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16689 SN 0028-0836
16690 J9 NATURE
16691 JI Nature
16692 PD SEP 22
16693 PY 2005
16694 VL 437
16695 IS 7058
16696 BP 495
16697 EP 496
16698 PG 2
16699 SC Multidisciplinary Sciences
16700 GA 966FF
16701 UT ISI:000232004800035
16702 ER
16703
16704 PT J
16705 AU Gillett, NP
16706 TI Climate modelling - Northern Hemisphere circulation
16707 SO NATURE
16708 LA English
16709 DT Editorial Material
16710 C1 Univ E Anglia, Sch Environm Sci, Climat Res Unit, Norwich NR4 7TJ, Norfolk, England.
16711 RP Gillett, NP, Univ E Anglia, Sch Environm Sci, Climat Res Unit, Norwich
16712 NR4 7TJ, Norfolk, England.
16713 EM n.gillett@uea.ac.uk
16714 NR 5
16715 TC 1
16716 PU NATURE PUBLISHING GROUP
16717 PI LONDON
16718 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16719 SN 0028-0836
16720 J9 NATURE
16721 JI Nature
16722 PD SEP 22
16723 PY 2005
16724 VL 437
16725 IS 7058
16726 BP 496
16727 EP 496
16728 PG 1
16729 SC Multidisciplinary Sciences
16730 GA 966FF
16731 UT ISI:000232004800036
16732 ER
16733
16734 PT J
16735 AU Fowler, JH
16736 TI Human cooperation - Second-order free-riding problem solved?
16737 SO NATURE
16738 LA English
16739 DT Editorial Material
16740 ID INDIRECT RECIPROCITY; REPUTATION; EVOLUTION
16741 C1 Univ Calif Davis, Dept Polit Sci, Davis, CA 95616 USA.
16742 RP Fowler, JH, Univ Calif Davis, Dept Polit Sci, 1 Shields Ave, Davis, CA
16743 95616 USA.
16744 EM jhfowler@ucdavis.edu
16745 NR 7
16746 TC 0
16747 PU NATURE PUBLISHING GROUP
16748 PI LONDON
16749 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16750 SN 0028-0836
16751 J9 NATURE
16752 JI Nature
16753 PD SEP 22
16754 PY 2005
16755 VL 437
16756 IS 7058
16757 BP E8
16758 EP E8
16759 PG 1
16760 SC Multidisciplinary Sciences
16761 GA 966FF
16762 UT ISI:000232004800037
16763 ER
16764
16765 PT J
16766 AU Panchanathan, K
16767 Boyd, R
16768 TI Human cooperation - Second-order free-riding problem solved? Reply
16769 SO NATURE
16770 LA English
16771 DT Editorial Material
16772 ID INDIRECT RECIPROCITY; EVOLUTION; PUNISHMENT; DEFECTORS
16773 C1 Univ Calif Los Angeles, Ctr Behav Evolut & Culture, Los Angeles, CA 90095 USA.
16774 Univ Calif Los Angeles, Dept Anthropol, Los Angeles, CA 90095 USA.
16775 RP Panchanathan, K, Univ Calif Los Angeles, Ctr Behav Evolut & Culture,
16776 Los Angeles, CA 90095 USA.
16777 EM buddha@ucla.edu
16778 NR 10
16779 TC 0
16780 PU NATURE PUBLISHING GROUP
16781 PI LONDON
16782 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16783 SN 0028-0836
16784 J9 NATURE
16785 JI Nature
16786 PD SEP 22
16787 PY 2005
16788 VL 437
16789 IS 7058
16790 BP E8
16791 EP E9
16792 PG 2
16793 SC Multidisciplinary Sciences
16794 GA 966FF
16795 UT ISI:000232004800038
16796 ER
16797
16798 PT J
16799 AU Weis, SM
16800 Cheresh, DA
16801 TI Pathophysiological consequences of VEGF-induced vascular permeability
16802 SO NATURE
16803 LA English
16804 DT Review
16805 ID ENDOTHELIAL GROWTH-FACTOR; CADHERIN TYROSINE PHOSPHORYLATION; FOCAL
16806 ADHESION KINASE; HYPOXIA-INDUCIBLE FACTOR-1-ALPHA; MICROVASCULAR
16807 PERMEABILITY; MYOCARDIAL-INFARCTION; INDUCED ANGIOGENESIS; TUMOR
16808 VASCULATURE; FACTOR EXPRESSION; BETA-CATENIN
16809 AB Although vascular endothelial growth factor ( VEGF) induces
16810 angiogenesis, it also disrupts vascular barrier function in diseased
16811 tissues. Accordingly, VEGF expression in cancer and ischaemic disease
16812 has unexpected pathophysiological consequences. By uncoupling
16813 endothelial cell - cell junctions VEGF causes vascular permeability and
16814 oedema, resulting in extensive injury to ischaemic tissues after stroke
16815 or myocardial infarction. In cancer, VEGF- mediated disruption of the
16816 vascular barrier may potentiate tumour cell extravasation, leading to
16817 widespread metastatic disease. Therefore, by blocking the vascular
16818 permeability promoting effects of VEGF it may be feasible to reduce
16819 tissue injury after ischaemic disease and minimize the invasive
16820 properties of circulating tumour cells.
16821 C1 Univ Calif San Diego, Dept Pathol, La Jolla, CA 92093 USA.
16822 Univ Calif San Diego, Moores UCSD Canc Ctr, La Jolla, CA 92093 USA.
16823 RP Cheresh, DA, Univ Calif San Diego, Dept Pathol, La Jolla, CA 92093 USA.
16824 EM dcheresh@ucsd.edu
16825 NR 100
16826 TC 0
16827 PU NATURE PUBLISHING GROUP
16828 PI LONDON
16829 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16830 SN 0028-0836
16831 J9 NATURE
16832 JI Nature
16833 PD SEP 22
16834 PY 2005
16835 VL 437
16836 IS 7058
16837 BP 497
16838 EP 504
16839 PG 8
16840 SC Multidisciplinary Sciences
16841 GA 966FF
16842 UT ISI:000232004800039
16843 ER
16844
16845 PT J
16846 AU Janssen, BJC
16847 Huizinga, EG
16848 Raaijmakers, HCA
16849 Roos, A
16850 Daha, MR
16851 Nilsson-Ekdahl, K
16852 Nilsson, B
16853 Gros, P
16854 TI Structures of complement component C3 provide insights into the
16855 function and evolution of immunity
16856 SO NATURE
16857 LA English
16858 DT Article
16859 ID INTERNAL THIOLESTER BOND; INITIAL C-3 CONVERTASE; RAY
16860 CRYSTAL-STRUCTURE; 3RD COMPONENT; FACTOR-H; DIFFRACTION DATA; PROTEIN
16861 C3; 2 PARTS; BINDING; THIOESTER
16862 AB The mammalian complement system is a phylogenetically ancient cascade
16863 system that has a major role in innate and adaptive immunity.
16864 Activation of component C3 ( 1,641 residues) is central to the three
16865 complement pathways and results in inflammation and elimination of self
16866 and non- self targets. Here we present crystal structures of native C3
16867 and its final major proteolytic fragment C3c. The structures reveal
16868 thirteen domains, nine of which were unpredicted, and suggest that the
16869 proteins of the alpha 2- macroglobulin family evolved from a core of
16870 eight homologous domains. A double mechanism prevents hydrolysis of the
16871 thioester group, essential for covalent attachment of activated C3 to
16872 target surfaces. Marked conformational changes in the alpha- chain,
16873 including movement of a critical interaction site through a ring formed
16874 by the domains of the beta- chain, indicate an unprecedented,
16875 conformation- dependent mechanism of activation, regulation and
16876 biological function of C3.
16877 C1 Univ Utrecht, Fac Sci, Bijvoet Ctr Biomol Res, NL-3584 CH Utrecht, Netherlands.
16878 Leiden Univ, Med Ctr, Dept Nephrol, NL-2300 RC Leiden, Netherlands.
16879 Univ Hosp, Dept Clin Immunol, SE-75185 Uppsala, Sweden.
16880 Univ Kalmar, Dept Chem & Biomed Sci, SE-39182 Kalmar, Sweden.
16881 RP Gros, P, Univ Utrecht, Fac Sci, Bijvoet Ctr Biomol Res, Padualaan 8,
16882 NL-3584 CH Utrecht, Netherlands.
16883 EM p.gros@chem.uu.nl
16884 NR 51
16885 TC 2
16886 PU NATURE PUBLISHING GROUP
16887 PI LONDON
16888 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16889 SN 0028-0836
16890 J9 NATURE
16891 JI Nature
16892 PD SEP 22
16893 PY 2005
16894 VL 437
16895 IS 7058
16896 BP 505
16897 EP 511
16898 PG 7
16899 SC Multidisciplinary Sciences
16900 GA 966FF
16901 UT ISI:000232004800040
16902 ER
16903
16904 PT J
16905 AU Socolich, M
16906 Lockless, SW
16907 Russ, WP
16908 Lee, H
16909 Gardner, KH
16910 Ranganathan, R
16911 TI Evolutionary information for specifying a protein fold
16912 SO NATURE
16913 LA English
16914 DT Article
16915 ID WW DOMAIN; MUTANT CYCLES; PDZ DOMAIN; BETA-SHEET; DETERMINANTS;
16916 DYNAMICS; CATALYSIS; PEPTIDE; PACKING; BINDING
16917 AB Classical studies show that for many proteins, the information required
16918 for specifying the tertiary structure is contained in the amino acid
16919 sequence. Here, we attempt to define the sequence rules for specifying
16920 a protein fold by computationally creating artificial protein sequences
16921 using only statistical information encoded in a multiple sequence
16922 alignment and no tertiary structure information. Experimental testing
16923 of libraries of artificial WW domain sequences shows that a simple
16924 statistical energy function capturing coevolution between amino acid
16925 residues is necessary and sufficient to specify sequences that fold
16926 into native structures. The artificial proteins show thermodynamic
16927 stabilities similar to natural WW domains, and structure determination
16928 of one artificial protein shows excellent agreement with the WW fold at
16929 atomic resolution. The relative simplicity of the information used for
16930 creating sequences suggests a marked reduction to the potential
16931 complexity of the protein- folding problem.
16932 C1 Univ Texas, SW Med Ctr, Howard Hughes Med Inst, Dallas, TX 75390 USA.
16933 Univ Texas, SW Med Ctr, Dept Pharmacol, Dallas, TX 75390 USA.
16934 Univ Texas, SW Med Ctr, Dept Biochem, Dallas, TX 75390 USA.
16935 RP Ranganathan, R, Univ Texas, SW Med Ctr, Howard Hughes Med Inst, Dallas,
16936 TX 75390 USA.
16937 EM rama.ranganathan@utsouthwestern.edu
16938 NR 50
16939 TC 2
16940 PU NATURE PUBLISHING GROUP
16941 PI LONDON
16942 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
16943 SN 0028-0836
16944 J9 NATURE
16945 JI Nature
16946 PD SEP 22
16947 PY 2005
16948 VL 437
16949 IS 7058
16950 BP 512
16951 EP 518
16952 PG 7
16953 SC Multidisciplinary Sciences
16954 GA 966FF
16955 UT ISI:000232004800041
16956 ER
16957
16958 PT J
16959 AU Le Fevre, O
16960 Paltani, S
16961 Arnouts, S
16962 Charlot, S
16963 Foucaud, S
16964 Ilbert, O
16965 McCracken, HJ
16966 Zamorani, G
16967 Bottini, D
16968 Garilli, B
16969 Le Brun, V
16970 Maccagni, D
16971 Picat, JP
16972 Scaramella, R
16973 Scodeggio, M
16974 Tresse, L
16975 Vettolani, G
16976 Zanichelli, A
16977 Adami, C
16978 Bardelli, S
16979 Bolzonella, M
16980 Cappi, A
16981 Ciliegi, P
16982 Contini, T
16983 Franzetti, P
16984 Gavignaud, I
16985 Guzzo, L
16986 Iovino, A
16987 Marano, B
16988 Marinoni, C
16989 Mazure, A
16990 Meneux, B
16991 Merighi, R
16992 Pello, R
16993 Pollo, A
16994 Pozzetti, L
16995 Radovich, M
16996 Zucca, E
16997 Arnaboldi, M
16998 Bondi, M
16999 Bongiorno, A
17000 Busarello, G
17001 Gregorini, L
17002 Lamareille, F
17003 Mathez, G
17004 Mellier, Y
17005 Merluzzi, P
17006 Ripepi, V
17007 Rizzo, D
17008 TI A large population of galaxies 9 to 12 billion years back in the
17009 history of the Universe
17010 SO NATURE
17011 LA English
17012 DT Article
17013 ID LYMAN-BREAK GALAXIES; ULTRAVIOLET LUMINOSITY DENSITY; FRANCE REDSHIFT
17014 SURVEY; FORMING GALAXIES; STAR-FORMATION; DEEP-FIELD; BRIGHT
17015 AB To understand the evolution of galaxies, we need to know as accurately
17016 as possible how many galaxies were present in the Universe at different
17017 epochs(1). Galaxies in the young Universe have hitherto mainly been
17018 identified using their expected optical colours(2 - 4), but this leaves
17019 open the possibility that a significant population remains undetected
17020 because their colours are the result of a complex mix of stars, gas,
17021 dust or active galactic nuclei. Here we report the results of a flux-
17022 limited I- band survey of galaxies at look- back times of 9 to 12
17023 billion years. We find 970 galaxies with spectroscopic redshifts
17024 between 1.4 and 5. This population is 1.6 to 6.2 times larger than
17025 previous estimates(2 - 4), with the difference increasing towards
17026 brighter magnitudes. Strong ultraviolet continua ( in the rest frame of
17027 the galaxies) indicate vigorous star formation rates of more than 10 -
17028 100 solar masses per year. As a consequence, the cosmic star formation
17029 rate representing the volume- averaged production of stars is higher
17030 than previously measured at redshifts of 3 to 4.
17031 C1 Univ Aix Marseille 1, CNRS, UMR 6110, OAMP,Lab Astrophys Marseille, F-13376 Marseille, France.
17032 Max Planck Inst Astrophys, D-85741 Garching, Germany.
17033 Inst Astrophys, UMR 7095, F-75014 Paris, France.
17034 IASF INAF, I-20133 Milan, Italy.
17035 Univ Bologna, Dipartimento Astron, I-40127 Bologna, Italy.
17036 Osservatorio Astron Bologna, INAF, I-40127 Bologna, Italy.
17037 Observ Midi Pyrenees, UMR 5572, Astrophys Lab, F-31400 Toulouse, France.
17038 IRA INAF, I-40129 Bologna, Italy.
17039 European So Observ, D-85748 Garching, Germany.
17040 Osserv Astron Brera, INAF, Milan, Italy.
17041 Osserv Astron Capodimonte, INAF, I-80131 Naples, Italy.
17042 Observ Paris, LERMA, F-75014 Paris, France.
17043 RP Le Fevre, O, Univ Aix Marseille 1, CNRS, UMR 6110, OAMP,Lab Astrophys
17044 Marseille, BP8, F-13376 Marseille, France.
17045 EM Olivier.LeFevre@oamp.fr
17046 NR 21
17047 TC 1
17048 PU NATURE PUBLISHING GROUP
17049 PI LONDON
17050 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17051 SN 0028-0836
17052 J9 NATURE
17053 JI Nature
17054 PD SEP 22
17055 PY 2005
17056 VL 437
17057 IS 7058
17058 BP 519
17059 EP 521
17060 PG 3
17061 SC Multidisciplinary Sciences
17062 GA 966FF
17063 UT ISI:000232004800042
17064 ER
17065
17066 PT J
17067 AU Sawano, F
17068 Terasaki, I
17069 Mori, H
17070 Mori, T
17071 Watanabe, M
17072 Ikeda, N
17073 Nogami, Y
17074 Noda, Y
17075 TI An organic thyristor
17076 SO NATURE
17077 LA English
17078 DT Article
17079 ID CONDUCTORS; STATE
17080 AB Thyristors are a class of nonlinear electronic device that exhibit
17081 bistable resistance - that is, they can be switched between two
17082 different conductance states(1). Thyristors are widely used as
17083 inverters ( direct to alternating current converters) and for the
17084 smooth control of power in a variety of applications such as motors and
17085 refrigerators. Materials and structures that exhibit nonlinear
17086 resistance of this sort are not only useful for practical applications:
17087 they also provide systems for exploring fundamental aspects of solid-
17088 state and statistical physics. Here we report the discovery of a giant
17089 nonlinear resistance effect in the conducting organic salt(2) theta- (
17090 BEDT- TTF) 2CsCo( SCN)(4), the voltage- current characteristics of
17091 which are essentially the same as those of a conventional thyristor.
17092 This intrinsic organic thyristor works as an inverter, generating an
17093 alternating current when a static direct- current voltage is applied.
17094 Whereas conventional thyristors consist of a series of diodes ( their
17095 nonlinearity comes from interface effects at the p- n junctions), the
17096 present salt exhibits giant nonlinear resistance as a bulk phenomenon.
17097 We attribute the origin of this effect to the current-induced melting
17098 of insulating charge- order domains, an intrinsically non- equilibrium
17099 phenomenon in the sense that ordered domains are melted by a steady
17100 flow.
17101 C1 Waseda Univ, Dept Appl Phys, Tokyo 1698555, Japan.
17102 Inst Solid State Phys, Kashiwa, Chiba 2778581, Japan.
17103 Japan Sci & Technol Corp, CREST, Kawaguchi 3320012, Japan.
17104 Tokyo Inst Technol, Dept Organ & Polymer Mat, Tokyo 1528552, Japan.
17105 Tohoku Univ, Inst Multidisciplinary Res Adv Mat, Sendai, Miyagi 9808577, Japan.
17106 Japan Synchrotron Radiat Res Inst, Mikazuki, Hyogo 6795198, Japan.
17107 Okayama Univ, Grad Sch Nat Sci & Technol, Okayama 7008530, Japan.
17108 RP Terasaki, I, Waseda Univ, Dept Appl Phys, Tokyo 1698555, Japan.
17109 EM terra@waseda.jp
17110 NR 13
17111 TC 0
17112 PU NATURE PUBLISHING GROUP
17113 PI LONDON
17114 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17115 SN 0028-0836
17116 J9 NATURE
17117 JI Nature
17118 PD SEP 22
17119 PY 2005
17120 VL 437
17121 IS 7058
17122 BP 522
17123 EP 524
17124 PG 3
17125 SC Multidisciplinary Sciences
17126 GA 966FF
17127 UT ISI:000232004800043
17128 ER
17129
17130 PT J
17131 AU Yamamoto, J
17132 Nishiyama, I
17133 Inoue, M
17134 Yokoyama, H
17135 TI Optical isotropy and iridescence in a smectic 'blue phase'
17136 SO NATURE
17137 LA English
17138 DT Article
17139 ID LIQUID-CRYSTAL
17140 AB When liquid crystal molecules are chiral, the twisted structure
17141 competes with spatially uniform liquid crystalline orders, resulting in
17142 a variety of modulated liquid crystal phases, such as the cholesteric
17143 blue phase(1), twist grain boundary(2 - 4) and smectic blue phases(5).
17144 Here we report a liquid crystal smectic blue phase ( SmBPiso), formed
17145 from a two- component mixture containing a chiral monomer and a ' twin'
17146 containing two repeat units of the first molecule connected by a linear
17147 hydrocarbon spacer. The phase exhibits the simultaneous presence of
17148 finite local- order parameters of helices and smectic layers, without
17149 any discontinuity on a mesoscopic length scale. The anomalous softening
17150 of elasticity due to a strong reduction in entropy caused by mixing the
17151 monomer and the twin permits the seamless coexistence of these two
17152 competing liquid crystal orders. The new phase spontaneously exhibits
17153 an optically isotropic but uniformly iridescent colour and
17154 automatically acquires spherical symmetry, so that the associated
17155 photonic band gap(6 - 9) maintains the same symmetry despite the local
17156 liquid crystalline order. We expect a range of unusual optical
17157 transmission properties based on this three-dimensional isotropic
17158 structure, and complete tunability due to the intrinsic softness and
17159 responsiveness of the liquid crystalline order against external fields.
17160 C1 ERATO, Yokoyama Nanostruct Liquid Crystal Project, JST, Tsukuba, Ibaraki 3002635, Japan.
17161 AIST, Nanotechnol Res Inst, Tsukuba, Ibaraki 3058568, Japan.
17162 RP Yamamoto, J, Kyoto Univ, Grad Sch Sci, Dept Phys, Sakyo Ku, Kyoto
17163 6068502, Japan.
17164 EM jun@junyamamoto.jp
17165 NR 17
17166 TC 0
17167 PU NATURE PUBLISHING GROUP
17168 PI LONDON
17169 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17170 SN 0028-0836
17171 J9 NATURE
17172 JI Nature
17173 PD SEP 22
17174 PY 2005
17175 VL 437
17176 IS 7058
17177 BP 525
17178 EP 528
17179 PG 4
17180 SC Multidisciplinary Sciences
17181 GA 966FF
17182 UT ISI:000232004800044
17183 ER
17184
17185 PT J
17186 AU Ciais, P
17187 Reichstein, M
17188 Viovy, N
17189 Granier, A
17190 Ogee, J
17191 Allard, V
17192 Aubinet, M
17193 Buchmann, N
17194 Bernhofer, C
17195 Carrara, A
17196 Chevallier, F
17197 De Noblet, N
17198 Friend, AD
17199 Friedlingstein, P
17200 Grunwald, T
17201 Heinesch, B
17202 Keronen, P
17203 Knohl, A
17204 Krinner, G
17205 Loustau, D
17206 Manca, G
17207 Matteucci, G
17208 Miglietta, F
17209 Ourcival, JM
17210 Papale, D
17211 Pilegaard, K
17212 Rambal, S
17213 Seufert, G
17214 Soussana, JF
17215 Sanz, MJ
17216 Schulze, ED
17217 Vesala, T
17218 Valentini, R
17219 TI Europe-wide reduction in primary productivity caused by the heat and
17220 drought in 2003
17221 SO NATURE
17222 LA English
17223 DT Article
17224 ID CARBON; MODEL; FORESTS; BALANCE; STRESS; GROWTH; CO2
17225 AB Future climate warming is expected to enhance plant growth in temperate
17226 ecosystems and to increase carbon sequestration(1,2). But although
17227 severe regional heatwaves may become more frequent in a changing
17228 climate(3,4), their impact on terrestrial carbon cycling is unclear.
17229 Here we report measurements of ecosystem carbon dioxide fluxes,
17230 remotely sensed radiation absorbed by plants, and country- level crop
17231 yields taken during the European heatwave in 2003. We use a terrestrial
17232 biosphere simulation model(5) to assess continental- scale changes in
17233 primary productivity during 2003, and their consequences for the net
17234 carbon balance. We estimate a 30 per cent reduction in gross primary
17235 productivity over Europe, which resulted in a strong anomalous net
17236 source of carbon dioxide ( 0.5 Pg Cyr(-1)) to the atmosphere and
17237 reversed the effect of four years of net ecosystem carbon
17238 sequestration(6). Our results suggest that productivity reduction in
17239 eastern and western Europe can be explained by rainfall deficit and
17240 extreme summer heat, respectively. We also find that ecosystem
17241 respiration decreased together with gross primary productivity, rather
17242 than accelerating with the temperature rise. Model results,
17243 corroborated by historical records of crop yields, suggest that such a
17244 reduction in Europe's primary productivity is unprecedented during the
17245 last century. An increase in future drought events could turn temperate
17246 ecosystems into carbon sources, contributing to positive carbon-
17247 climate feedbacks already anticipated in the tropics and at high
17248 latitudes(1,2).
17249 C1 Lab Sci Climat & Environm, F-91191 Gif Sur Yvette, France.
17250 Univ Tuscia, DISAFRI, Dept Forest Environm & Resources, I-01100 Viterbo, Italy.
17251 Potsdam Inst Climate Impact Res, D-14473 Potsdam, Germany.
17252 Ctr Nancy, F-54280 Champenoux, France.
17253 INRA, Ephyse, Funct Ecol & Environm Phys, F-33612 Villenave Dornon, France.
17254 INRA, Grassland Ecosyst Res, F-63039 Clermont Ferrand, France.
17255 ETH Zentrum, Inst Plant Sci, CH-8092 Zurich, Switzerland.
17256 Fac Sci Agron Etat Gembloux, B-5030 Gembloux, Belgium.
17257 Tech Univ Dresden, Dept Meteorol, Inst Hydrol & Meteorol, D-01062 Dresden, Germany.
17258 Fdn CEAM, E-46980 Valencia, Spain.
17259 Univ Helsinki, Dept Phys Sci, FIN-00014 Helsinki, Finland.
17260 Max Planck Inst Biogeochem, D-07701 Jena, Germany.
17261 Univ Calif Berkeley, Dept Environm Sci Policy & Management, Ecosyst Sci Div, Berkeley, CA 94720 USA.
17262 Lab Glaciol & Geophys Environm, F-38402 St Martin Dheres, France.
17263 Commiss European Communities, Joint Res Ctr, Inst Environm & Sustainabil, I-21020 Ispra, Italy.
17264 CNR, IBIMET, I-50144 Florence, Italy.
17265 CNRS, DREAM CEFE, F-34293 Montpellier, France.
17266 Riso Natl Lab, Biosyst Dept, DK-4000 Roskilde, Denmark.
17267 RP Ciais, P, Lab Sci Climat & Environm, F-91191 Gif Sur Yvette, France.
17268 EM philippe.ciais@cea.fr
17269 NR 28
17270 TC 1
17271 PU NATURE PUBLISHING GROUP
17272 PI LONDON
17273 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17274 SN 0028-0836
17275 J9 NATURE
17276 JI Nature
17277 PD SEP 22
17278 PY 2005
17279 VL 437
17280 IS 7058
17281 BP 529
17282 EP 533
17283 PG 5
17284 SC Multidisciplinary Sciences
17285 GA 966FF
17286 UT ISI:000232004800045
17287 ER
17288
17289 PT J
17290 AU Rubin, KH
17291 van der Zander, I
17292 Smith, MC
17293 Bergmanis, EC
17294 TI Minimum speed limit for ocean ridge magmatism from Pb-210-Ra-226-Th-230
17295 disequilibria
17296 SO NATURE
17297 LA English
17298 DT Article
17299 ID URANIUM DECAY SERIES; MIDOCEAN RIDGE; U-SERIES; RADIOACTIVE
17300 DISEQUILIBRIA; VOLCANIC-ROCKS; AXIAL VOLCANO; SEA-FLOOR; LAVAS;
17301 CONSTRAINTS; GENERATION
17302 AB Although 70 per cent of global crustal magmatism occurs at mid-ocean
17303 ridges(1) - where the heat budget controls crustal structure,
17304 hydrothermal activity and a vibrant biosphere - the tempo of magmatic
17305 inputs in these regions remains poorly understood. Such timescales can
17306 be assessed, however, with natural radioactive-decay- chain nuclides,
17307 because chemical disruption to secular equilibrium systems initiates
17308 parent - daughter disequilibria, which re- equilibrate by the shorter
17309 half- life in a pair. Here we use (210) Pb - (226) Ra - (230) Th
17310 radioactive disequilibria and other geochemical attributes in oceanic
17311 basalts less than 20 years old to infer that melts of the Earth's
17312 mantle can be transported, accumulated and erupted in a few decades.
17313 This implies that magmatic conditions can fluctuate rapidly at ridge
17314 volcanoes. (210) Pb deficits of up to 15 per cent relative to (226) Ra
17315 occur in normal mid- ocean ridge basalts, with the largest deficits in
17316 the most magnesium- rich lavas. The 22- year half- life of (210) Pb
17317 requires very recent fractionation of these two uranium- series
17318 nuclides. Relationships between (210) Pb- deficits, ( (226) Ra/ (230)
17319 Th) activity ratios and compatible trace- element ratios preclude
17320 crustal- magma differentiation or daughter- isotope degassing as the
17321 main causes for the signal. A mantle- melting model(2) can simulate
17322 observed disequilibria but preservation requires a subsequent mechanism
17323 to transport melt rapidly. The likelihood of magmatic disequilibria
17324 occurring before melt enters shallow crustal magma bodies also limits
17325 differentiation and heat replenishment timescales to decades at the
17326 localities studied.
17327 C1 Univ Hawaii, Hawaii Ctr Volcanol, Dept Geol & Geophys, Honolulu, HI 96822 USA.
17328 RP Rubin, KH, Univ Hawaii, Hawaii Ctr Volcanol, Dept Geol & Geophys, 1680
17329 East West Rd, Honolulu, HI 96822 USA.
17330 EM krubin@hawaii.edu
17331 NR 30
17332 TC 1
17333 PU NATURE PUBLISHING GROUP
17334 PI LONDON
17335 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17336 SN 0028-0836
17337 J9 NATURE
17338 JI Nature
17339 PD SEP 22
17340 PY 2005
17341 VL 437
17342 IS 7058
17343 BP 534
17344 EP 538
17345 PG 5
17346 SC Multidisciplinary Sciences
17347 GA 966FF
17348 UT ISI:000232004800046
17349 ER
17350
17351 PT J
17352 AU Schorlemmer, D
17353 Wiemer, S
17354 Wyss, M
17355 TI Variations in earthquake-size distribution across different stress
17356 regimes
17357 SO NATURE
17358 LA English
17359 DT Article
17360 ID FREQUENCY-MAGNITUDE DISTRIBUTION; B-VALUE; RECURRENCE TIMES;
17361 CALIFORNIA; VALUES; FAULTS; DEPTH; ROCK
17362 AB The earthquake size distribution follows, in most instances, a power
17363 law(1,2), with the slope of this power law, the ' b value', commonly
17364 used to describe the relative occurrence of large and small events ( a
17365 high b value indicates a larger proportion of small earthquakes, and
17366 vice versa). Statistically significant variations of b values have been
17367 measured in laboratory experiments, mines and various tectonic regimes
17368 such as subducting slabs, near magma chambers, along fault zones and in
17369 aftershock zones(3). However, it has remained uncertain whether these
17370 differences are due to differing stress regimes, as it was questionable
17371 that samples in small volumes ( such as in laboratory specimens, mines
17372 and the shallow Earth's crust) are representative of earthquakes in
17373 general. Given the lack of physical understanding of these differences,
17374 the observation that b values approach the constant 1 if large volumes
17375 are sampled(4) was interpreted to indicate that b = 1 is a universal
17376 constant for earthquakes in general(5). Here we show that the b value
17377 varies systematically for different styles of faulting. We find that
17378 normal faulting events have the highest b values, thrust events the
17379 lowest and strike- slip events intermediate values. Given that thrust
17380 faults tend to be under higher stress than normal faults we infer that
17381 the b value acts as a stress meter that depends inversely on
17382 differential stress.
17383 C1 Swiss Fed Inst Technol, ETH Honggerberg, Swiss Seismol Serv, CH-8093 Zurich, Switzerland.
17384 World Agcy Planetary Monitoring & Earthquake Risk, CH-1207 Geneva, Switzerland.
17385 RP Schorlemmer, D, Swiss Fed Inst Technol, ETH Honggerberg, Swiss Seismol
17386 Serv, Schafmattstr 30, CH-8093 Zurich, Switzerland.
17387 EM danijel@sed.ethz.ch
17388 NR 28
17389 TC 0
17390 PU NATURE PUBLISHING GROUP
17391 PI LONDON
17392 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17393 SN 0028-0836
17394 J9 NATURE
17395 JI Nature
17396 PD SEP 22
17397 PY 2005
17398 VL 437
17399 IS 7058
17400 BP 539
17401 EP 542
17402 PG 4
17403 SC Multidisciplinary Sciences
17404 GA 966FF
17405 UT ISI:000232004800047
17406 ER
17407
17408 PT J
17409 AU Konneke, M
17410 Bernhard, AE
17411 de la Torre, JR
17412 Walker, CB
17413 Waterbury, JB
17414 Stahl, DA
17415 TI Isolation of an autotrophic ammonia-oxidizing marine archaeon
17416 SO NATURE
17417 LA English
17418 DT Article
17419 ID PLANKTONIC ARCHAEA; PACIFIC-OCEAN; SEQUENCE DATA; CRENARCHAEOTA;
17420 BACTERIA; FIXATION
17421 AB For years, microbiologists characterized the Archaea as obligate
17422 extremophiles that thrive in environments too harsh for other
17423 organisms. The limited physiological diversity among cultivated Archaea
17424 suggested that these organisms were metabolically constrained to a few
17425 environmental niches. For instance, all Crenarchaeota that are
17426 currently cultivated are sulphur-metabolizing thermophiles(1). However,
17427 landmark studies using cultivation- independent methods uncovered vast
17428 numbers of Crenarchaeota in cold oxic ocean waters(2,3). Subsequent
17429 molecular surveys demonstrated the ubiquity of these low- temperature
17430 Crenarchaeota in aquatic and terrestrial environments(4). The numerical
17431 dominance of marine Crenarchaeota - estimated at 10(28) cells in the
17432 world's oceans(5) - suggests that they have a major role in global
17433 biogeochemical cycles. Indeed, isotopic analyses of marine crenarchaeal
17434 lipids suggest that these planktonic Archaea fix inorganic carbon(6).
17435 Here we report the isolation of a marine crenarchaeote that grows
17436 chemolithoautotrophically by aerobically oxidizing ammonia to nitrite -
17437 the first observation of nitrification in the Archaea. The autotrophic
17438 metabolism of this isolate, and its close phylogenetic relationship to
17439 environmental marine crenarchaeal sequences, suggests that nitrifying
17440 marine Crenarchaeota may be important to global carbon and nitrogen
17441 cycles.
17442 C1 Univ Washington, Dept Civil & Environm Engn, Seattle, WA 98195 USA.
17443 Woods Hole Oceanog Inst, Woods Hole, MA 02543 USA.
17444 RP Stahl, DA, Univ Washington, Dept Civil & Environm Engn, Seattle, WA
17445 98195 USA.
17446 EM dastahl@u.washington.edu
17447 NR 27
17448 TC 0
17449 PU NATURE PUBLISHING GROUP
17450 PI LONDON
17451 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17452 SN 0028-0836
17453 J9 NATURE
17454 JI Nature
17455 PD SEP 22
17456 PY 2005
17457 VL 437
17458 IS 7058
17459 BP 543
17460 EP 546
17461 PG 4
17462 SC Multidisciplinary Sciences
17463 GA 966FF
17464 UT ISI:000232004800048
17465 ER
17466
17467 PT J
17468 AU Wassen, MJ
17469 Venterink, HO
17470 Lapshina, ED
17471 Tanneberger, F
17472 TI Endangered plants persist under phosphorus limitation
17473 SO NATURE
17474 LA English
17475 DT Article
17476 ID FRESH-WATER WETLANDS; SPECIES RICHNESS; NUTRIENT LIMITATION; NITROGEN;
17477 RESTORATION; COMMUNITIES; DIVERSITY; BIODIVERSITY; CONSTRAINTS;
17478 GRASSLANDS
17479 AB Nitrogen enrichment is widely thought to be responsible for the loss of
17480 plant species from temperate terrestrial ecosystems. This view is based
17481 on field surveys and controlled experiments showing that species
17482 richness correlates negatively with high productivity(1,2) and nitrogen
17483 enrichment(3). However, as the type of nutrient limitation has never
17484 been examined on a large geographical scale the causality of these
17485 relationships is uncertain. We investigated species richness in
17486 herbaceous terrestrial ecosystems, sampled along a transect through
17487 temperate Eurasia that represented a gradient of declining levels of
17488 atmospheric nitrogen deposition - from similar to 50 kg ha(-1) yr(-1)
17489 in western Europe to natural background values of less than 5 kg ha(-1)
17490 yr(-1) in Siberia(4). Here we show that many more endangered plant
17491 species persist under phosphorus- limited than under nitrogen- limited
17492 conditions, and we conclude that enhanced phosphorus is more likely to
17493 be the cause of species loss than nitrogen enrichment. Our results
17494 highlight the need for a better understanding of the mechanisms of
17495 phosphorus enrichment, and for a stronger focus on conservation
17496 management to reduce phosphorus availability.
17497 C1 Univ Utrecht, Copernicus Inst Sustainable Dev & Innovat, NL-3508 TC Utrecht, Netherlands.
17498 ETH, Geobot Inst, CH-8044 Zurich, Switzerland.
17499 Tomsk VV Kuibyshev State Univ, Dept Bot, Tomsk 634050, Russia.
17500 Univ Greifswald, Inst Bot & Landscape Ecol, D-17487 Greifswald, Germany.
17501 RP Wassen, MJ, Univ Utrecht, Copernicus Inst Sustainable Dev & Innovat,
17502 POB 80115, NL-3508 TC Utrecht, Netherlands.
17503 EM m.wassen@geo.uu.nl
17504 NR 30
17505 TC 0
17506 PU NATURE PUBLISHING GROUP
17507 PI LONDON
17508 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17509 SN 0028-0836
17510 J9 NATURE
17511 JI Nature
17512 PD SEP 22
17513 PY 2005
17514 VL 437
17515 IS 7058
17516 BP 547
17517 EP 550
17518 PG 4
17519 SC Multidisciplinary Sciences
17520 GA 966FF
17521 UT ISI:000232004800049
17522 ER
17523
17524 PT J
17525 AU Nusbaum, C
17526 Zody, MC
17527 Borowsky, ML
17528 Kamal, M
17529 Kodira, CD
17530 Taylor, TD
17531 Whittaker, CA
17532 Chang, JL
17533 Cuomo, CA
17534 Dewar, K
17535 FitzGerald, MG
17536 Yang, XP
17537 Abouelleil, A
17538 Allen, NR
17539 Anderson, S
17540 Bloom, T
17541 Bugalter, B
17542 Butler, J
17543 Cook, A
17544 DeCaprio, D
17545 Engels, R
17546 Garber, M
17547 Gnirke, A
17548 Hafez, N
17549 Hall, JL
17550 Norman, CH
17551 Itoh, T
17552 Jaffe, DB
17553 Kuroki, Y
17554 Lehoczky, J
17555 Lui, A
17556 Macdonald, P
17557 Mauceli, E
17558 Mikkelsen, TS
17559 Naylor, JW
17560 Nicol, R
17561 Nguyen, C
17562 Noguchi, H
17563 O'Leary, SB
17564 Piqani, B
17565 Smith, CL
17566 Talamas, JA
17567 Topham, K
17568 Totoki, Y
17569 Toyoda, A
17570 Wain, HM
17571 Young, SK
17572 Zeng, QD
17573 Zimmer, AR
17574 Fujiyama, A
17575 Hattori, M
17576 Birren, BW
17577 Sakaki, Y
17578 Lander, ES
17579 TI DNA sequence and analysis of human chromosome 18
17580 SO NATURE
17581 LA English
17582 DT Article
17583 ID HUMAN GENOME; GENE DESERTS; EVOLUTION; MOUSE; DUPLICATION; DATABASE;
17584 INVERSION; SEARCH; BLAST; MAP
17585 AB Chromosome 18 appears to have the lowest gene density of any human
17586 chromosome and is one of only three chromosomes for which trisomic
17587 individuals survive to term(1). There are also a number of genetic
17588 disorders stemming from chromosome 18 trisomy and aneuploidy. Here we
17589 report the finished sequence and gene annotation of human chromosome
17590 18, which will allow a better understanding of the normal and disease
17591 biology of this chromosome. Despite the low density of protein- coding
17592 genes on chromosome 18, we find that the proportion of non-
17593 protein-coding sequences evolutionarily conserved among mammals is
17594 close to the genome- wide average. Extending this analysis to the
17595 entire human genome, we find that the density of conserved non-
17596 protein- coding sequences is largely uncorrelated with gene density.
17597 This has important implications for the nature and roles of non-
17598 protein- coding sequence elements.
17599 C1 MIT, Broad Inst, Cambridge, MA 02141 USA.
17600 Harvard Univ, Cambridge, MA 02141 USA.
17601 RIKEN, Genom Sci Ctr, Tsurumi Ku, Kanagawa 2300045, Japan.
17602 Mitsubishi Res Inst Inc, Chiyoda Ku, Tokyo 1008141, Japan.
17603 Univ Tokyo, Kashiwa, Chiba 2770882, Japan.
17604 Univ London Univ Coll, Galton Lab, HUGO Gene Nomenclature Comm, London NW1 2HE, England.
17605 Natl Inst Informat, Chiyoda Ku, Tokyo 1018430, Japan.
17606 Kitasato Univ, Kitsato Inst Life Sci, Kanagawa 2288555, Japan.
17607 RP Nusbaum, C, MIT, Broad Inst, 320 Charles St, Cambridge, MA 02141 USA.
17608 EM chad@broad.mit.edu
17609 NR 34
17610 TC 0
17611 PU NATURE PUBLISHING GROUP
17612 PI LONDON
17613 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17614 SN 0028-0836
17615 J9 NATURE
17616 JI Nature
17617 PD SEP 22
17618 PY 2005
17619 VL 437
17620 IS 7058
17621 BP 551
17622 EP 555
17623 PG 5
17624 SC Multidisciplinary Sciences
17625 GA 966FF
17626 UT ISI:000232004800050
17627 ER
17628
17629 PT J
17630 AU Harris, GC
17631 Wimmer, M
17632 Aston-Jones, G
17633 TI A role for lateral hypothalamic orexin neurons in reward seeking
17634 SO NATURE
17635 LA English
17636 DT Article
17637 ID VENTRAL TEGMENTAL AREA; RECEPTOR ANTAGONIST; RAT-BRAIN; HYPOCRETIN
17638 OREXIN; FEEDING-BEHAVIOR; FOS EXPRESSION; PREFERENCE; STRESS;
17639 NEUROPEPTIDES; ENVIRONMENT
17640 AB The lateral hypothalamus is a brain region historically implicated in
17641 reward and motivation(1 - 4), but the identity of the neurotransmitters
17642 involved are unknown. The orexins ( or hypocretins) are neuropeptides
17643 recently identified as neurotransmitters in lateral hypothalamus
17644 neurons(5,6). Although knockout and transgenic overexpression studies
17645 have implicated orexin neurons in arousal and sleep(7), these cells
17646 also project to reward- associated brain regions, including the nucleus
17647 accumbens and ventral tegmental area(8,9). This indicates a possible
17648 role for these neurons in reward function and motivation(3,10),
17649 consistent with previous studies implicating these neurons in
17650 feeding(6). Here we show that activation of lateral hypothalamus orexin
17651 neurons is strongly linked to preferences for cues associated with drug
17652 and food reward. In addition, we show that chemical activation of
17653 lateral hypothalamus orexin neurons reinstates an extinguished drug-
17654 seeking behaviour. This reinstatement effect was completely blocked by
17655 prior administration of an orexin A antagonist. Moreover,
17656 administration of the orexin A peptide directly into the ventral
17657 tegmental area also reinstated drug- seeking. These data reveal a new
17658 role for lateral hypothalamus orexin neurons in reward- seeking, drug
17659 relapse and addiction.
17660 C1 Univ Penn, Dept Psychiat, Lab Neuromodulat & Behav, Philadelphia, PA 19104 USA.
17661 RP Harris, GC, Univ Penn, Dept Psychiat, Lab Neuromodulat & Behav, 705
17662 Stellar Chance 6100,422 Curie Blvd, Philadelphia, PA 19104 USA.
17663 EM glenda@dolphin.upenn.edu
17664 NR 31
17665 TC 0
17666 PU NATURE PUBLISHING GROUP
17667 PI LONDON
17668 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17669 SN 0028-0836
17670 J9 NATURE
17671 JI Nature
17672 PD SEP 22
17673 PY 2005
17674 VL 437
17675 IS 7058
17676 BP 556
17677 EP 559
17678 PG 4
17679 SC Multidisciplinary Sciences
17680 GA 966FF
17681 UT ISI:000232004800051
17682 ER
17683
17684 PT J
17685 AU Hsiung, F
17686 Ramirez-Weber, FA
17687 Iwaki, DD
17688 Kornberg, TB
17689 TI Dependence of Drosophila wing imaginal disc cytonemes on decapentaplegic
17690 SO NATURE
17691 LA English
17692 DT Article
17693 ID LONG-RANGE ACTION; GRADIENT FORMATION; MORPHOGEN GRADIENT; TRACHEAL
17694 SYSTEM; DPP; HEDGEHOG; CELLS; FGF; EXPRESSION; FILOPODIA
17695 AB The anterior/ posterior ( A/ P) and dorsal/ ventral ( D/ V) compartment
17696 borders that subdivide the wing imaginal discs of Drosophila third
17697 instar larvae are each associated with a developmental organizer.
17698 Decapentaplegic ( Dpp), a member of the transforming growth factor-beta
17699 ( TGF-beta) superfamily, embodies the activity of the A/ P organizer.
17700 It is produced at the A/ P organizer and distributes in a gradient of
17701 decreasing concentration to regulate target genes, functioning non-
17702 autonomously to regulate growth and patterning of both the anterior and
17703 posterior compartments(1 - 3). Wingless ( Wg) is produced at the D/ V
17704 organizer and embodies its activity(4,5). The mechanisms that
17705 distribute Dpp and Wg are not known, but proposed mechanisms include
17706 extracellular diffusion(6), successive transfers between neighbouring
17707 cells(7,8), vesicle- mediated movement(9), and direct transfer via
17708 cytonemes(10). Cytonemes are actin-based filopodial extensions that
17709 have been found to orient towards the A/ P organizer from outlying
17710 cells. Here we show that in the wing disc, cytonemes orient towards
17711 both the A/ P and D/ V organizers, and that their presence and
17712 orientation correlates with Dpp signalling. We also show that the Dpp
17713 receptor, Thickveins ( Tkv), is present in punctae that move along
17714 cytonemes. These observations are consistent with a role for cytonemes
17715 in signal transduction.
17716 C1 Univ Calif San Francisco, Dept Biochem & Biophys, San Francisco, CA 94143 USA.
17717 RP Kornberg, TB, Univ Calif San Francisco, Dept Biochem & Biophys, San
17718 Francisco, CA 94143 USA.
17719 EM tkornberg@biochem.ucsf.edu
17720 NR 24
17721 TC 0
17722 PU NATURE PUBLISHING GROUP
17723 PI LONDON
17724 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17725 SN 0028-0836
17726 J9 NATURE
17727 JI Nature
17728 PD SEP 22
17729 PY 2005
17730 VL 437
17731 IS 7058
17732 BP 560
17733 EP 563
17734 PG 4
17735 SC Multidisciplinary Sciences
17736 GA 966FF
17737 UT ISI:000232004800052
17738 ER
17739
17740 PT J
17741 AU Varela, I
17742 Cadinanos, J
17743 Pendas, AM
17744 Gutierrez-Fernandez, A
17745 Folgueras, AR
17746 Sanchez, LM
17747 Zhou, ZJ
17748 Rodriguez, FJ
17749 Stewart, CL
17750 Vega, JA
17751 Tryggvason, K
17752 Freije, JMP
17753 Lopez-Otin, C
17754 TI Accelerated ageing in mice deficient in Zmpste24 protease is linked to
17755 p53 signalling activation
17756 SO NATURE
17757 LA English
17758 DT Article
17759 ID A-TYPE LAMINS; HUTCHINSON-GILFORD PROGERIA; LIFE-SPAN; IN-VIVO;
17760 METALLOPROTEINASE; SENESCENCE; PHENOTYPES; MUTATIONS; CANCER; CELLS
17761 AB Zmpste24 ( also called FACE- 1) is a metalloproteinase involved in the
17762 maturation of lamin A ( Lmna), an essential component of the nuclear
17763 envelope(1 - 3). Both Zmpste24- and Lmna- deficient mice exhibit
17764 profound nuclear architecture abnormalities and multiple
17765 histopathological defects that phenocopy an accelerated ageing
17766 process(1,2,4,5). Similarly, diverse human progeroid syndromes are
17767 caused by mutations in ZMPSTE24 or LMNA genes(6 - 10). To elucidate the
17768 molecular mechanisms underlying these devastating diseases, we have
17769 analysed the transcriptional alterations occurring in tissues from
17770 Zmpste24- deficient mice. We demonstrate that Zmpste24 deficiency
17771 elicits a stress signalling pathway that is evidenced by a marked
17772 upregulation of p53 target genes, and accompanied by a senescence
17773 phenotype at the cellular level and accelerated ageing at the
17774 organismal level. These phenotypes are largely rescued in Zmpste24
17775 (-/-) Lmna (+/-) mice and partially reversed in Zmpste24 (-/-) p53
17776 (-/-) mice. These findings provide evidence for the existence of a
17777 checkpoint response activated by the nuclear abnormalities caused by
17778 prelamin A accumulation, and support the concept that hyperactivation
17779 of the tumour suppressor p53 may cause accelerated ageing(11).
17780 C1 Inst Univ Oncol, Fac Med, Dept Bioquim & Biol Mol, Oviedo, Spain.
17781 Univ Oviedo, Dept Morfol & Biol Celular, E-33006 Oviedo, Spain.
17782 Karolinska Inst, Dept Biochem & Biophys, Div Matrix Biol, S-17177 Stockholm, Sweden.
17783 NCI, Frederick, MD 21702 USA.
17784 RP Lopez-Otin, C, Inst Univ Oncol, Fac Med, Dept Bioquim & Biol Mol,
17785 Oviedo, Spain.
17786 EM clo@uniovi.es
17787 NR 30
17788 TC 0
17789 PU NATURE PUBLISHING GROUP
17790 PI LONDON
17791 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17792 SN 0028-0836
17793 J9 NATURE
17794 JI Nature
17795 PD SEP 22
17796 PY 2005
17797 VL 437
17798 IS 7058
17799 BP 564
17800 EP 568
17801 PG 5
17802 SC Multidisciplinary Sciences
17803 GA 966FF
17804 UT ISI:000232004800053
17805 ER
17806
17807 PT J
17808 AU Zhang, J
17809 Hupfeld, CJ
17810 Taylor, SS
17811 Olefsky, JM
17812 Tsien, RY
17813 TI Insulin disrupts beta-adrenergic signalling to protein kinase A in
17814 adipocytes
17815 SO NATURE
17816 LA English
17817 DT Article
17818 ID 3T3-L1 ADIPOCYTES; BETA(2)-ADRENERGIC RECEPTOR; GENE-EXPRESSION;
17819 GRANULOSA-CELLS; CAMP; PHOSPHORYLATION; BETA-ARRESTIN-1;
17820 DESENSITIZATION; STIMULATION; ACTIVATION
17821 AB Hormones mobilize intracellular second messengers and initiate
17822 signalling cascades involving protein kinases and phosphatases, which
17823 are often spatially compartmentalized by anchoring proteins to increase
17824 signalling specificity(1). These scaffold proteins may themselves be
17825 modulated by hormones(2 - 4). In adipocytes, stimulation of beta-
17826 adrenergic receptors increases cyclic AMP levels and activates protein
17827 kinase A ( PKA)(5), which stimulates lipolysis by phosphorylating
17828 hormone- sensitive lipase and perilipin(6 - 8). Acute insulin treatment
17829 activates phosphodiesterase 3B, reduces cAMP levels and quenches beta-
17830 adrenergic receptor signalling(9). In contrast, chronic
17831 hyperinsulinaemic conditions ( typical of type 2 diabetes) enhance
17832 beta- adrenergic receptor- mediated cAMP production(10). This
17833 amplification of cAMP signalling is paradoxical because it should
17834 enhance lipolysis, the opposite of the known short- term effect of
17835 hyperinsulinaemia. Here we show that in adipocytes, chronically high
17836 insulin levels inhibit beta- adrenergic receptors ( but not other cAMP-
17837 elevating stimuli) from activating PKA. We measured this using an
17838 improved fluorescent reporter and by phosphorylation of endogenous
17839 cAMP- response- element binding protein ( CREB). Disruption of PKA
17840 scaffolding mimics the interference of insulin with beta- adrenergic
17841 receptor signalling. Chronically high insulin levels may disrupt the
17842 close apposition of beta- adrenergic receptors and PKA, identifying a
17843 new mechanism for crosstalk between heterologous signal transduction
17844 pathways.
17845 C1 Univ Calif San Diego, Dept Pharmacol, La Jolla, CA 92093 USA.
17846 Univ Calif San Diego, Div Endocrinol & Metab, La Jolla, CA 92093 USA.
17847 Univ Calif San Diego, Dept Chem & Biochem, La Jolla, CA 92093 USA.
17848 Univ Calif San Diego, Howard Hughes Med Inst, La Jolla, CA 92093 USA.
17849 RP Tsien, RY, Univ Calif San Diego, Dept Pharmacol, La Jolla, CA 92093 USA.
17850 EM rtsien@ucsd.edu
17851 NR 26
17852 TC 0
17853 PU NATURE PUBLISHING GROUP
17854 PI LONDON
17855 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17856 SN 0028-0836
17857 J9 NATURE
17858 JI Nature
17859 PD SEP 22
17860 PY 2005
17861 VL 437
17862 IS 7058
17863 BP 569
17864 EP 573
17865 PG 5
17866 SC Multidisciplinary Sciences
17867 GA 966FF
17868 UT ISI:000232004800054
17869 ER
17870
17871 PT J
17872 AU Dodge-Kafka, KL
17873 Soughayer, J
17874 Pare, GC
17875 Michel, JJC
17876 Langeberg, LK
17877 Kapiloff, MS
17878 Scott, JD
17879 TI The protein kinase A anchoring protein mAKAP coordinates two integrated
17880 cAMP effector pathways
17881 SO NATURE
17882 LA English
17883 DT Article
17884 ID CYCLIC-AMP; DEPENDENT REGULATION; CARDIAC-HYPERTROPHY;
17885 PHOSPHODIESTERASE; EPAC; PHOSPHORYLATION; ACTIVATION; MYOCYTES;
17886 BINDING; RAP1
17887 AB Cyclic adenosine 3', 5'- monophosphate ( cAMP) is a ubiquitous mediator
17888 of intracellular signalling events. It acts principally through
17889 stimulation of cAMP- dependent protein kinases ( PKAs)(1,2) but also
17890 activates certain ion channels and guanine nucleotide exchange factors
17891 ( Epacs)(3). Metabolism of cAMP is catalysed by phosphodiesterases (
17892 PDEs) (4,5). Here we identify a cAMP- responsive signalling complex
17893 maintained by the muscle-specific A- kinase anchoring protein ( mAKAP)
17894 that includes PKA, PDE4D3 and Epac1. These intermolecular interactions
17895 facilitate the dissemination of distinct cAMP signals through each
17896 effector protein. Anchored PKA stimulates PDE4D3 to reduce local cAMP
17897 concentrations, whereas an mAKAP- associated ERK5 kinase module
17898 suppresses PDE4D3. PDE4D3 also functions as an adaptor protein that
17899 recruits Epac1, an exchange factor for the small GTPase Rap1, to enable
17900 cAMP- dependent attenuation of ERK5. Pharmacological and molecular
17901 manipulations of the mAKAP complex show that anchored ERK5 can induce
17902 cardiomyocyte hypertrophy. Thus, two coupled cAMP- dependent feedback
17903 loops are coordinated within the context of the mAKAP complex,
17904 suggesting that local control of cAMP signalling by AKAP proteins is
17905 more intricate than previously appreciated.
17906 C1 Oregon Hlth & Sci Univ, Howard Hughes Med Inst, Vollum Inst, Portland, OR 97239 USA.
17907 Oregon Hlth & Sci Univ, Dept Pediat, Portland, OR 97239 USA.
17908 RP Scott, JD, Oregon Hlth & Sci Univ, Howard Hughes Med Inst, Vollum Inst,
17909 Portland, OR 97239 USA.
17910 EM scott@ohsu.edu
17911 NR 30
17912 TC 0
17913 PU NATURE PUBLISHING GROUP
17914 PI LONDON
17915 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17916 SN 0028-0836
17917 J9 NATURE
17918 JI Nature
17919 PD SEP 22
17920 PY 2005
17921 VL 437
17922 IS 7058
17923 BP 574
17924 EP 578
17925 PG 5
17926 SC Multidisciplinary Sciences
17927 GA 966FF
17928 UT ISI:000232004800055
17929 ER
17930
17931 PT J
17932 AU Russ, WP
17933 Lowery, DM
17934 Mishra, P
17935 Yaffe, MB
17936 Ranganathan, R
17937 TI Natural-like function in artificial WW domains
17938 SO NATURE
17939 LA English
17940 DT Article
17941 ID YES-ASSOCIATED PROTEIN; LIGAND RECOGNITION; PROLINE; DESIGN;
17942 SPECIFICITY; MECHANISM; REDESIGN; COMPLEX; MODULES
17943 AB Protein sequences evolve through random mutagenesis with selection for
17944 optimal fitness(1). Cooperative folding into a stable tertiary
17945 structure is one aspect of fitness, but evolutionary selection
17946 ultimately operates on function, not on structure. In the accompanying
17947 paper(2), we proposed a model for the evolutionary constraint on a
17948 small protein interaction module ( the WW domain) through application
17949 of the SCA, a statistical analysis of multiple sequence
17950 alignments(3,4). Construction of artificial protein sequences directed
17951 only by the SCA showed that the information extracted by this analysis
17952 is sufficient to engineer the WW fold at atomic resolution. Here, we
17953 demonstrate that these artificial WW sequences function like their
17954 natural counterparts, showing class-specific recognition of proline-
17955 containing target peptides(5 - 8). Consistent with SCA predictions, a
17956 distributed network of residues mediates functional specificity in WW
17957 domains. The ability to recapitulate natural- like function in designed
17958 sequences shows that a relatively small quantity of sequence
17959 information is sufficient to specify the global energetics of amino
17960 acid interactions.
17961 C1 Univ Texas, SW Med Ctr, Howard Hughes Med Inst, Dallas, TX 75390 USA.
17962 Univ Texas, SW Med Ctr, Dept Pharmacol, Dallas, TX 75390 USA.
17963 MIT, Dept Biol, Ctr Canc Res, Cambridge, MA 02139 USA.
17964 MIT, Div Biol Engn, Cambridge, MA 02139 USA.
17965 RP Ranganathan, R, Univ Texas, SW Med Ctr, Howard Hughes Med Inst, Dallas,
17966 TX 75390 USA.
17967 EM rama.ranganathan@utsouthwestern.edu
17968 NR 29
17969 TC 1
17970 PU NATURE PUBLISHING GROUP
17971 PI LONDON
17972 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
17973 SN 0028-0836
17974 J9 NATURE
17975 JI Nature
17976 PD SEP 22
17977 PY 2005
17978 VL 437
17979 IS 7058
17980 BP 579
17981 EP 583
17982 PG 5
17983 SC Multidisciplinary Sciences
17984 GA 966FF
17985 UT ISI:000232004800056
17986 ER
17987
17988 PT J
17989 AU Torres-Larios, A
17990 Swinger, KK
17991 Krasilnikov, AS
17992 Pan, T
17993 Mondragon, A
17994 TI Crystal structure of the RNA component of bacterial ribonuclease P
17995 SO NATURE
17996 LA English
17997 DT Article
17998 ID PHOTOAFFINITY CROSS-LINKING; MAGNESIUM-IONS; RIBONUCLEOPROTEIN ENZYME;
17999 CATALYTIC SUBUNIT; ESCHERICHIA-COLI; SUBSTRATE; RIBOZYME; RECOGNITION;
18000 BINDING; DOMAIN
18001 AB Transfer RNA ( tRNA) is produced as a precursor molecule that needs to
18002 be processed at its 30 and 50 ends. Ribonuclease P is the sole
18003 endonuclease responsible for processing the 50 end of tRNA by cleaving
18004 the precursor and leading to tRNA maturation. It was one of the first
18005 catalytic RNA molecules identified(1) and consists of a single RNA
18006 component in all organisms and only one protein component in bacteria.
18007 It is a true multi- turnover ribozyme and one of only two ribozymes (
18008 the other being the ribosome) that are conserved in all kingdoms of
18009 life. Here we show the crystal structure at 3.85 angstrom resolution of
18010 the RNA component of Thermotoga maritima ribonuclease P. The entire RNA
18011 catalytic component is revealed, as well as the arrangement of the two
18012 structural domains. The structure shows the general architecture of the
18013 RNA molecule, the inter- and intra- domain interactions, the location
18014 of the universally conserved regions, the regions involved in pre- tRNA
18015 recognition and the location of the active site. A model with bound
18016 tRNA is in agreement with all existing data and suggests the general
18017 basis for RNA - RNA recognition by this ribozyme.
18018 C1 Northwestern Univ, Dept Biochem Mol Biol & Cell Biol, Evanston, IL 60208 USA.
18019 Univ Chicago, Dept Biochem & Mol Biol, Chicago, IL 60637 USA.
18020 RP Mondragon, A, Northwestern Univ, Dept Biochem Mol Biol & Cell Biol,
18021 2153 Sheridan Rd, Evanston, IL 60208 USA.
18022 EM a-mondragon@northwestern.edu
18023 NR 30
18024 TC 1
18025 PU NATURE PUBLISHING GROUP
18026 PI LONDON
18027 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18028 SN 0028-0836
18029 J9 NATURE
18030 JI Nature
18031 PD SEP 22
18032 PY 2005
18033 VL 437
18034 IS 7058
18035 BP 584
18036 EP 587
18037 PG 4
18038 SC Multidisciplinary Sciences
18039 GA 966FF
18040 UT ISI:000232004800057
18041 ER
18042
18043 PT J
18044 AU Rosenbaum, B
18045 TI Falling - The view from here.
18046 SO NATURE
18047 LA English
18048 DT Editorial Material
18049 NR 0
18050 TC 0
18051 PU NATURE PUBLISHING GROUP
18052 PI LONDON
18053 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18054 SN 0028-0836
18055 J9 NATURE
18056 JI Nature
18057 PD SEP 22
18058 PY 2005
18059 VL 437
18060 IS 7058
18061 BP 594
18062 EP 594
18063 PG 1
18064 SC Multidisciplinary Sciences
18065 GA 966FF
18066 UT ISI:000232004800058
18067 ER
18068
18069 PT J
18070 AU [Anon]
18071 TI The hand that feeds
18072 SO NATURE
18073 LA English
18074 DT Editorial Material
18075 NR 0
18076 TC 0
18077 PU NATURE PUBLISHING GROUP
18078 PI LONDON
18079 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18080 SN 0028-0836
18081 J9 NATURE
18082 JI Nature
18083 PD SEP 15
18084 PY 2005
18085 VL 437
18086 IS 7057
18087 BP 295
18088 EP 295
18089 PG 1
18090 SC Multidisciplinary Sciences
18091 GA 964AS
18092 UT ISI:000231849100001
18093 ER
18094
18095 PT J
18096 AU [Anon]
18097 TI Global reach
18098 SO NATURE
18099 LA English
18100 DT Editorial Material
18101 NR 0
18102 TC 0
18103 PU NATURE PUBLISHING GROUP
18104 PI LONDON
18105 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18106 SN 0028-0836
18107 J9 NATURE
18108 JI Nature
18109 PD SEP 15
18110 PY 2005
18111 VL 437
18112 IS 7057
18113 BP 295
18114 EP 296
18115 PG 2
18116 SC Multidisciplinary Sciences
18117 GA 964AS
18118 UT ISI:000231849100002
18119 ER
18120
18121 PT J
18122 AU [Anon]
18123 TI All things equal
18124 SO NATURE
18125 LA English
18126 DT Editorial Material
18127 NR 0
18128 TC 0
18129 PU NATURE PUBLISHING GROUP
18130 PI LONDON
18131 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18132 SN 0028-0836
18133 J9 NATURE
18134 JI Nature
18135 PD SEP 15
18136 PY 2005
18137 VL 437
18138 IS 7057
18139 BP 296
18140 EP 296
18141 PG 1
18142 SC Multidisciplinary Sciences
18143 GA 964AS
18144 UT ISI:000231849100003
18145 ER
18146
18147 PT J
18148 AU Dalton, R
18149 TI New Orleans researchers fight to salvage work from submerged labs
18150 SO NATURE
18151 LA English
18152 DT News Item
18153 AB Hurricane Katrina has devastated research laboratories in New Orleans.
18154 Rescue teams discovered that many frozen specimens and cell cultures
18155 had thawed, making them useless, some projects however have been saved
18156 by academic rescue teamgoing into flooded buildings and topping up
18157 dewars of liquid nitrogen to keepspecimens cold. Scientists have moved
18158 as far as California to maintain their projects after the aftermath of
18159 Hurricane Katrina.
18160 NR 1
18161 TC 1
18162 PU NATURE PUBLISHING GROUP
18163 PI LONDON
18164 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18165 SN 0028-0836
18166 J9 NATURE
18167 JI Nature
18168 PD SEP 15
18169 PY 2005
18170 VL 437
18171 IS 7057
18172 BP 300
18173 EP 300
18174 PG 1
18175 SC Multidisciplinary Sciences
18176 GA 964AS
18177 UT ISI:000231849100004
18178 ER
18179
18180 PT J
18181 AU Marris, E
18182 Marris, E
18183 TI First tests show flood waters high in bacteria and lead
18184 SO NATURE
18185 LA English
18186 DT News Item
18187 AB As the clean- up operation along the US Gulf Coast gets into full
18188 swing, the environmental effects of Hurricane Katrina are slowly coming
18189 light.
18190 NR 0
18191 TC 0
18192 PU NATURE PUBLISHING GROUP
18193 PI LONDON
18194 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18195 SN 0028-0836
18196 J9 NATURE
18197 JI Nature
18198 PD SEP 15
18199 PY 2005
18200 VL 437
18201 IS 7057
18202 BP 301
18203 EP 301
18204 PG 1
18205 SC Multidisciplinary Sciences
18206 GA 964AS
18207 UT ISI:000231849100005
18208 ER
18209
18210 PT J
18211 AU Schiermeier, Q
18212 TI US tests satellite tool for hurricane monitoring
18213 SO NATURE
18214 LA English
18215 DT News Item
18216 NR 0
18217 TC 0
18218 PU NATURE PUBLISHING GROUP
18219 PI LONDON
18220 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18221 SN 0028-0836
18222 J9 NATURE
18223 JI Nature
18224 PD SEP 15
18225 PY 2005
18226 VL 437
18227 IS 7057
18228 BP 301
18229 EP 301
18230 PG 1
18231 SC Multidisciplinary Sciences
18232 GA 964AS
18233 UT ISI:000231849100006
18234 ER
18235
18236 PT J
18237 AU Dalton, R
18238 TI Ornithologists stunned by bird collector's deceit
18239 SO NATURE
18240 LA English
18241 DT News Item
18242 AB The British Colonel Richard Meinertzhagen earned many illustrious
18243 titles during his life of globe-trotting, including soldier, spy and
18244 even scientist. Now an extensive analysis of bird specimens he
18245 collected across continents adds another label: fraud artist.
18246 NR 0
18247 TC 0
18248 PU NATURE PUBLISHING GROUP
18249 PI LONDON
18250 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18251 SN 0028-0836
18252 J9 NATURE
18253 JI Nature
18254 PD SEP 15
18255 PY 2005
18256 VL 437
18257 IS 7057
18258 BP 302
18259 EP 303
18260 PG 2
18261 SC Multidisciplinary Sciences
18262 GA 964AS
18263 UT ISI:000231849100007
18264 ER
18265
18266 PT J
18267 AU Dennis, C
18268 TI Free mice herald launch of Asia-Pacific network
18269 SO NATURE
18270 LA English
18271 DT News Item
18272 AB Developmental biologists in Asia-Pacific countries have come up with an
18273 intriguing incentive to boost research in the region giving away
18274 transgenic mice forfree.
18275 NR 0
18276 TC 0
18277 PU NATURE PUBLISHING GROUP
18278 PI LONDON
18279 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18280 SN 0028-0836
18281 J9 NATURE
18282 JI Nature
18283 PD SEP 15
18284 PY 2005
18285 VL 437
18286 IS 7057
18287 BP 302
18288 EP 303
18289 PG 2
18290 SC Multidisciplinary Sciences
18291 GA 964AS
18292 UT ISI:000231849100008
18293 ER
18294
18295 PT J
18296 AU Khamsi, R
18297 TI Can we score the millennium goals?
18298 SO NATURE
18299 LA English
18300 DT News Item
18301 AB As world leaders gather in New York this week to discuss the future of
18302 the United Nations' Millennium Development Goals, critics are warning
18303 that many of the targets cannot be evaluated scientifically. Unless the
18304 goals are peer reviewed and amended to take account of what can
18305 actually be measured, they say, theproject will fail.
18306 NR 0
18307 TC 0
18308 PU NATURE PUBLISHING GROUP
18309 PI LONDON
18310 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18311 SN 0028-0836
18312 J9 NATURE
18313 JI Nature
18314 PD SEP 15
18315 PY 2005
18316 VL 437
18317 IS 7057
18318 BP 304
18319 EP 304
18320 PG 1
18321 SC Multidisciplinary Sciences
18322 GA 964AS
18323 UT ISI:000231849100009
18324 ER
18325
18326 PT J
18327 AU Wild, J
18328 TI Europe backs trials on drugs for kids
18329 SO NATURE
18330 LA English
18331 DT News Item
18332 AB The European parliament has decided that clinical drug trials should be
18333 preformed on children in approprite age groups.To date drug companies
18334 have been slowto test their products on children.
18335 NR 0
18336 TC 0
18337 PU NATURE PUBLISHING GROUP
18338 PI LONDON
18339 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18340 SN 0028-0836
18341 J9 NATURE
18342 JI Nature
18343 PD SEP 15
18344 PY 2005
18345 VL 437
18346 IS 7057
18347 BP 304
18348 EP 305
18349 PG 2
18350 SC Multidisciplinary Sciences
18351 GA 964AS
18352 UT ISI:000231849100010
18353 ER
18354
18355 PT J
18356 AU Check, E
18357 TI UK embryo licence draws global attention
18358 SO NATURE
18359 LA English
18360 DT News Item
18361 AB Scientists in Britain have been granted permission to perform
18362 controversial experiments that will create human embryos using genetic
18363 material from three people.Scientists are allowed to transfer the
18364 nucleus of a fertilized egg into anegg donated by a second woman.
18365 NR 0
18366 TC 1
18367 PU NATURE PUBLISHING GROUP
18368 PI LONDON
18369 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18370 SN 0028-0836
18371 J9 NATURE
18372 JI Nature
18373 PD SEP 15
18374 PY 2005
18375 VL 437
18376 IS 7057
18377 BP 305
18378 EP 305
18379 PG 1
18380 SC Multidisciplinary Sciences
18381 GA 964AS
18382 UT ISI:000231849100011
18383 ER
18384
18385 PT J
18386 AU Reichhardt, T
18387 TI Spacecraft on course to score a first with asteroid samples
18388 SO NATURE
18389 LA English
18390 DT News Item
18391 NR 0
18392 TC 0
18393 PU NATURE PUBLISHING GROUP
18394 PI LONDON
18395 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18396 SN 0028-0836
18397 J9 NATURE
18398 JI Nature
18399 PD SEP 15
18400 PY 2005
18401 VL 437
18402 IS 7057
18403 BP 306
18404 EP 306
18405 PG 1
18406 SC Multidisciplinary Sciences
18407 GA 964AS
18408 UT ISI:000231849100012
18409 ER
18410
18411 PT J
18412 AU Giles, J
18413 TI The nightmare before funding
18414 SO NATURE
18415 LA English
18416 DT News Item
18417 NR 0
18418 TC 2
18419 PU NATURE PUBLISHING GROUP
18420 PI LONDON
18421 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18422 SN 0028-0836
18423 J9 NATURE
18424 JI Nature
18425 PD SEP 15
18426 PY 2005
18427 VL 437
18428 IS 7057
18429 BP 308
18430 EP 311
18431 PG 4
18432 SC Multidisciplinary Sciences
18433 GA 964AS
18434 UT ISI:000231849100013
18435 ER
18436
18437 PT J
18438 AU Abbott, A
18439 TI Paper, paper, everywhere ...
18440 SO NATURE
18441 LA English
18442 DT News Item
18443 NR 0
18444 TC 0
18445 PU NATURE PUBLISHING GROUP
18446 PI LONDON
18447 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18448 SN 0028-0836
18449 J9 NATURE
18450 JI Nature
18451 PD SEP 15
18452 PY 2005
18453 VL 437
18454 IS 7057
18455 BP 310
18456 EP 310
18457 PG 1
18458 SC Multidisciplinary Sciences
18459 GA 964AS
18460 UT ISI:000231849100014
18461 ER
18462
18463 PT J
18464 AU Bergeron, K
18465 TI The inside track
18466 SO NATURE
18467 LA English
18468 DT Editorial Material
18469 NR 0
18470 TC 0
18471 PU NATURE PUBLISHING GROUP
18472 PI LONDON
18473 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18474 SN 0028-0836
18475 J9 NATURE
18476 JI Nature
18477 PD SEP 15
18478 PY 2005
18479 VL 437
18480 IS 7057
18481 BP 311
18482 EP 311
18483 PG 1
18484 SC Multidisciplinary Sciences
18485 GA 964AS
18486 UT ISI:000231849100015
18487 ER
18488
18489 PT J
18490 AU Marshall, J
18491 TI Megacity, mega mess ...
18492 SO NATURE
18493 LA English
18494 DT News Item
18495 ID RISK-FACTORS; INDONESIA; JAKARTA
18496 NR 7
18497 TC 0
18498 PU NATURE PUBLISHING GROUP
18499 PI LONDON
18500 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18501 SN 0028-0836
18502 J9 NATURE
18503 JI Nature
18504 PD SEP 15
18505 PY 2005
18506 VL 437
18507 IS 7057
18508 BP 312
18509 EP 314
18510 PG 3
18511 SC Multidisciplinary Sciences
18512 GA 964AS
18513 UT ISI:000231849100016
18514 ER
18515
18516 PT J
18517 AU Chipman, A
18518 TI Defence group aims for take-off
18519 SO NATURE
18520 LA English
18521 DT News Item
18522 NR 0
18523 TC 0
18524 PU NATURE PUBLISHING GROUP
18525 PI LONDON
18526 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18527 SN 0028-0836
18528 J9 NATURE
18529 JI Nature
18530 PD SEP 15
18531 PY 2005
18532 VL 437
18533 IS 7057
18534 BP 316
18535 EP 317
18536 PG 2
18537 SC Multidisciplinary Sciences
18538 GA 964AS
18539 UT ISI:000231849100017
18540 ER
18541
18542 PT J
18543 AU Schiermeier, Q
18544 TI Market watch
18545 SO NATURE
18546 LA English
18547 DT News Item
18548 NR 0
18549 TC 1
18550 PU NATURE PUBLISHING GROUP
18551 PI LONDON
18552 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18553 SN 0028-0836
18554 J9 NATURE
18555 JI Nature
18556 PD SEP 15
18557 PY 2005
18558 VL 437
18559 IS 7057
18560 BP 317
18561 EP 317
18562 PG 1
18563 SC Multidisciplinary Sciences
18564 GA 964AS
18565 UT ISI:000231849100018
18566 ER
18567
18568 PT J
18569 AU Smith, CI
18570 TI Re-wilding: introductions could reduce biodiversity
18571 SO NATURE
18572 LA English
18573 DT Letter
18574 C1 Univ Idaho, Dept Biol Sci, Moscow, ID 83844 USA.
18575 RP Smith, CI, Univ Idaho, Dept Biol Sci, Moscow, ID 83844 USA.
18576 NR 2
18577 TC 0
18578 PU NATURE PUBLISHING GROUP
18579 PI LONDON
18580 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18581 SN 0028-0836
18582 J9 NATURE
18583 JI Nature
18584 PD SEP 15
18585 PY 2005
18586 VL 437
18587 IS 7057
18588 BP 318
18589 EP 318
18590 PG 1
18591 SC Multidisciplinary Sciences
18592 GA 964AS
18593 UT ISI:000231849100019
18594 ER
18595
18596 PT J
18597 AU Chapron, G
18598 TI Re-wilding: other projects help carnivores stay wild
18599 SO NATURE
18600 LA English
18601 DT Letter
18602 C1 CNRS, UMR 7625, Ecol Lab, F-75005 Paris, France.
18603 Ecole Normale Super, F-75005 Paris, France.
18604 Univ Angers, Lab Ecol Anim UMR MA105, Angers, France.
18605 RP Chapron, G, CNRS, UMR 7625, Ecol Lab, 24 Rue Lhomond, F-75005 Paris,
18606 France.
18607 NR 2
18608 TC 0
18609 PU NATURE PUBLISHING GROUP
18610 PI LONDON
18611 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18612 SN 0028-0836
18613 J9 NATURE
18614 JI Nature
18615 PD SEP 15
18616 PY 2005
18617 VL 437
18618 IS 7057
18619 BP 318
18620 EP 318
18621 PG 1
18622 SC Multidisciplinary Sciences
18623 GA 964AS
18624 UT ISI:000231849100020
18625 ER
18626
18627 PT J
18628 AU Phang, IY
18629 TI Malaysia can't thrive while it excludes minority talent
18630 SO NATURE
18631 LA English
18632 DT Letter
18633 C1 Univ Twente, Dept Mat Sci & Technol Polymers, NL-7500 AE Enschede, Netherlands.
18634 RP Phang, IY, Univ Twente, Dept Mat Sci & Technol Polymers, POB 217,
18635 NL-7500 AE Enschede, Netherlands.
18636 NR 1
18637 TC 0
18638 PU NATURE PUBLISHING GROUP
18639 PI LONDON
18640 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18641 SN 0028-0836
18642 J9 NATURE
18643 JI Nature
18644 PD SEP 15
18645 PY 2005
18646 VL 437
18647 IS 7057
18648 BP 318
18649 EP 318
18650 PG 1
18651 SC Multidisciplinary Sciences
18652 GA 964AS
18653 UT ISI:000231849100021
18654 ER
18655
18656 PT J
18657 AU Dodd, AN
18658 Hotta, CT
18659 Gardner, MJ
18660 TI Harry Potter and the prisoner of presumption
18661 SO NATURE
18662 LA English
18663 DT Letter
18664 C1 Univ Cambridge, Dept Plant Sci, Cambridge CB2 3EA, England.
18665 RP Dodd, AN, Univ Cambridge, Dept Plant Sci, Downing St, Cambridge CB2
18666 3EA, England.
18667 NR 1
18668 TC 0
18669 PU NATURE PUBLISHING GROUP
18670 PI LONDON
18671 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18672 SN 0028-0836
18673 J9 NATURE
18674 JI Nature
18675 PD SEP 15
18676 PY 2005
18677 VL 437
18678 IS 7057
18679 BP 318
18680 EP 318
18681 PG 1
18682 SC Multidisciplinary Sciences
18683 GA 964AS
18684 UT ISI:000231849100022
18685 ER
18686
18687 PT J
18688 AU Markl, HS
18689 TI Insatiable curiosity: Innovation in a fragile future
18690 SO NATURE
18691 LA German
18692 DT Book Review
18693 C1 Univ Konstanz, Dept Biol, D-78457 Constance, Germany.
18694 RP Markl, HS, Univ Konstanz, Dept Biol, D-78457 Constance, Germany.
18695 NR 1
18696 TC 0
18697 PU NATURE PUBLISHING GROUP
18698 PI LONDON
18699 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18700 SN 0028-0836
18701 J9 NATURE
18702 JI Nature
18703 PD SEP 15
18704 PY 2005
18705 VL 437
18706 IS 7057
18707 BP 319
18708 EP 320
18709 PG 2
18710 SC Multidisciplinary Sciences
18711 GA 964AS
18712 UT ISI:000231849100023
18713 ER
18714
18715 PT J
18716 AU Hunt, J
18717 TI The weather in the imagination
18718 SO NATURE
18719 LA English
18720 DT Book Review
18721 C1 Univ Coll London, Ctr Polar Observ & Modelling, Dept Space & Climate Phys, London WC1E 6BT, England.
18722 RP Hunt, J, Univ Coll London, Ctr Polar Observ & Modelling, Dept Space &
18723 Climate Phys, Gower St, London WC1E 6BT, England.
18724 NR 1
18725 TC 0
18726 PU NATURE PUBLISHING GROUP
18727 PI LONDON
18728 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18729 SN 0028-0836
18730 J9 NATURE
18731 JI Nature
18732 PD SEP 15
18733 PY 2005
18734 VL 437
18735 IS 7057
18736 BP 320
18737 EP 321
18738 PG 2
18739 SC Multidisciplinary Sciences
18740 GA 964AS
18741 UT ISI:000231849100024
18742 ER
18743
18744 PT J
18745 AU Findlay, JM
18746 TI The moving tablet of the eye: The origins of modern eye movement
18747 research
18748 SO NATURE
18749 LA English
18750 DT Book Review
18751 C1 Univ Durham, Dept Psychol, Durham DH1 3LE, England.
18752 RP Findlay, JM, Univ Durham, Dept Psychol, South Rd, Durham DH1 3LE,
18753 England.
18754 NR 1
18755 TC 0
18756 PU NATURE PUBLISHING GROUP
18757 PI LONDON
18758 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18759 SN 0028-0836
18760 J9 NATURE
18761 JI Nature
18762 PD SEP 15
18763 PY 2005
18764 VL 437
18765 IS 7057
18766 BP 321
18767 EP 321
18768 PG 1
18769 SC Multidisciplinary Sciences
18770 GA 964AS
18771 UT ISI:000231849100025
18772 ER
18773
18774 PT J
18775 AU Farmelo, G
18776 TI Dirac's hidden geometry
18777 SO NATURE
18778 LA English
18779 DT Editorial Material
18780 C1 Northeastern Univ, Boston, MA 02115 USA.
18781 RP Farmelo, G, Northeastern Univ, Boston, MA 02115 USA.
18782 NR 2
18783 TC 0
18784 PU NATURE PUBLISHING GROUP
18785 PI LONDON
18786 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18787 SN 0028-0836
18788 J9 NATURE
18789 JI Nature
18790 PD SEP 15
18791 PY 2005
18792 VL 437
18793 IS 7057
18794 BP 323
18795 EP 323
18796 PG 1
18797 SC Multidisciplinary Sciences
18798 GA 964AS
18799 UT ISI:000231849100026
18800 ER
18801
18802 PT J
18803 AU Mohanty, P
18804 TI Nanotechnology - Nano-oscillators get it together
18805 SO NATURE
18806 LA English
18807 DT Editorial Material
18808 C1 Boston Univ, Dept Phys, Boston, MA 02215 USA.
18809 RP Mohanty, P, Boston Univ, Dept Phys, 590 Commonwealth Ave, Boston, MA
18810 02215 USA.
18811 EM mohanty@physics.bu.edu
18812 NR 12
18813 TC 0
18814 PU NATURE PUBLISHING GROUP
18815 PI LONDON
18816 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18817 SN 0028-0836
18818 J9 NATURE
18819 JI Nature
18820 PD SEP 15
18821 PY 2005
18822 VL 437
18823 IS 7057
18824 BP 325
18825 EP 326
18826 PG 2
18827 SC Multidisciplinary Sciences
18828 GA 964AS
18829 UT ISI:000231849100027
18830 ER
18831
18832 PT J
18833 AU Rogers, YH
18834 Venter, JC
18835 TI Genomics - Massively parallel sequencing
18836 SO NATURE
18837 LA English
18838 DT Editorial Material
18839 C1 J Craig Venter Inst, Rockville, MD 20850 USA.
18840 RP Rogers, YH, J Craig Venter Inst, 9704 Med Ctr Dr, Rockville, MD 20850
18841 USA.
18842 EM jcventer@venterinstitute.org
18843 NR 9
18844 TC 0
18845 PU NATURE PUBLISHING GROUP
18846 PI LONDON
18847 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18848 SN 0028-0836
18849 J9 NATURE
18850 JI Nature
18851 PD SEP 15
18852 PY 2005
18853 VL 437
18854 IS 7057
18855 BP 326
18856 EP 327
18857 PG 2
18858 SC Multidisciplinary Sciences
18859 GA 964AS
18860 UT ISI:000231849100028
18861 ER
18862
18863 PT J
18864 AU Meerholz, K
18865 TI Device physics - Enlightening solutions
18866 SO NATURE
18867 LA English
18868 DT Editorial Material
18869 ID POLYMERS
18870 C1 Univ Cologne, Inst Phys Chem, D-50939 Cologne, Germany.
18871 RP Meerholz, K, Univ Cologne, Inst Phys Chem, Luxemburgerstr 116, D-50939
18872 Cologne, Germany.
18873 EM klaus.meerholz@uni-koeln.de
18874 NR 8
18875 TC 0
18876 PU NATURE PUBLISHING GROUP
18877 PI LONDON
18878 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18879 SN 0028-0836
18880 J9 NATURE
18881 JI Nature
18882 PD SEP 15
18883 PY 2005
18884 VL 437
18885 IS 7057
18886 BP 327
18887 EP 328
18888 PG 2
18889 SC Multidisciplinary Sciences
18890 GA 964AS
18891 UT ISI:000231849100029
18892 ER
18893
18894 PT J
18895 AU Barrientos, S
18896 TI Earthquakes - Giant returns in time
18897 SO NATURE
18898 LA English
18899 DT Editorial Material
18900 ID DEFORMATION; CHILE
18901 C1 Preparatory Commiss Comprehens Nucl Test Ban Trea, A-1400 Vienna, Austria.
18902 RP Barrientos, S, Preparatory Commiss Comprehens Nucl Test Ban Trea, POB
18903 1200, A-1400 Vienna, Austria.
18904 EM sergio.barrientos@ctbto.org
18905 NR 9
18906 TC 0
18907 PU NATURE PUBLISHING GROUP
18908 PI LONDON
18909 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18910 SN 0028-0836
18911 J9 NATURE
18912 JI Nature
18913 PD SEP 15
18914 PY 2005
18915 VL 437
18916 IS 7057
18917 BP 329
18918 EP 329
18919 PG 1
18920 SC Multidisciplinary Sciences
18921 GA 964AS
18922 UT ISI:000231849100030
18923 ER
18924
18925 PT J
18926 AU Winans, SC
18927 TI Microbiology - Bacterial speech bubbles
18928 SO NATURE
18929 LA English
18930 DT Editorial Material
18931 C1 Cornell Univ, Dept Microbiol, Ithaca, NY 14853 USA.
18932 RP Winans, SC, Cornell Univ, Dept Microbiol, Ithaca, NY 14853 USA.
18933 EM scw2@cornell.edu
18934 NR 4
18935 TC 0
18936 PU NATURE PUBLISHING GROUP
18937 PI LONDON
18938 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18939 SN 0028-0836
18940 J9 NATURE
18941 JI Nature
18942 PD SEP 15
18943 PY 2005
18944 VL 437
18945 IS 7057
18946 BP 330
18947 EP 330
18948 PG 1
18949 SC Multidisciplinary Sciences
18950 GA 964AS
18951 UT ISI:000231849100031
18952 ER
18953
18954 PT J
18955 AU Mahadevan, L
18956 Mitchison, TJ
18957 TI Cell biology: powerful curves (vol 435, pg 895, 2005)
18958 SO NATURE
18959 LA English
18960 DT Correction
18961 ID CAP
18962 NR 6
18963 TC 0
18964 PU NATURE PUBLISHING GROUP
18965 PI LONDON
18966 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18967 SN 0028-0836
18968 J9 NATURE
18969 JI Nature
18970 PD SEP 15
18971 PY 2005
18972 VL 437
18973 IS 7057
18974 BP 330
18975 EP 330
18976 PG 1
18977 SC Multidisciplinary Sciences
18978 GA 964AS
18979 UT ISI:000231849100032
18980 ER
18981
18982 PT J
18983 AU Heimann, M
18984 TI Charles David Keeling 1928-2005 - Pioneer in the modern science of
18985 climate change. Obituary
18986 SO NATURE
18987 LA English
18988 DT Biographical-Item
18989 C1 Max Planck Inst Biogeochem, D-07701 Jena, Germany.
18990 RP Heimann, M, Max Planck Inst Biogeochem, PF 100164, D-07701 Jena,
18991 Germany.
18992 EM martin.heimann@bgc-jena.mpg.de
18993 NR 1
18994 TC 0
18995 PU NATURE PUBLISHING GROUP
18996 PI LONDON
18997 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
18998 SN 0028-0836
18999 J9 NATURE
19000 JI Nature
19001 PD SEP 15
19002 PY 2005
19003 VL 437
19004 IS 7057
19005 BP 331
19006 EP 331
19007 PG 1
19008 SC Multidisciplinary Sciences
19009 GA 964AS
19010 UT ISI:000231849100033
19011 ER
19012
19013 PT J
19014 AU Spalding, KL
19015 Buchholz, BA
19016 Bergman, LE
19017 Druid, H
19018 Frisen, J
19019 TI Age written in teeth by nuclear tests
19020 SO NATURE
19021 LA English
19022 DT Editorial Material
19023 ID C-14
19024 C1 Karolinska Inst, Dept Cell & Mol Biol, Med Nobel Inst, S-17177 Stockholm, Sweden.
19025 Karolinska Inst, Dept Forens Med, S-17177 Stockholm, Sweden.
19026 Lawrence Livermore Natl Lab, Ctr Accelerator Mass Spectrometry, Livermore, CA 94551 USA.
19027 RP Spalding, KL, Karolinska Inst, Dept Cell & Mol Biol, Med Nobel Inst,
19028 S-17177 Stockholm, Sweden.
19029 EM jonas.frisen@cmb.ki.se
19030 NR 10
19031 TC 1
19032 PU NATURE PUBLISHING GROUP
19033 PI LONDON
19034 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19035 SN 0028-0836
19036 J9 NATURE
19037 JI Nature
19038 PD SEP 15
19039 PY 2005
19040 VL 437
19041 IS 7057
19042 BP 333
19043 EP 334
19044 PG 2
19045 SC Multidisciplinary Sciences
19046 GA 964AS
19047 UT ISI:000231849100034
19048 ER
19049
19050 PT J
19051 AU Gandia-Herrero, F
19052 Garcia-Carmona, F
19053 Escribano, J
19054 TI Floral fluorescence effect
19055 SO NATURE
19056 LA English
19057 DT Editorial Material
19058 ID BETAXANTHINS
19059 C1 Univ Murcia, Dept Bioquim & Biol Mol A, Unidad Docente Biol, Fac Vet, E-30100 Murcia, Spain.
19060 RP Gandia-Herrero, F, Univ Murcia, Dept Bioquim & Biol Mol A, Unidad
19061 Docente Biol, Fac Vet, E-30100 Murcia, Spain.
19062 EM gcarmona@um.es
19063 NR 10
19064 TC 0
19065 PU NATURE PUBLISHING GROUP
19066 PI LONDON
19067 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19068 SN 0028-0836
19069 J9 NATURE
19070 JI Nature
19071 PD SEP 15
19072 PY 2005
19073 VL 437
19074 IS 7057
19075 BP 334
19076 EP 334
19077 PG 1
19078 SC Multidisciplinary Sciences
19079 GA 964AS
19080 UT ISI:000231849100035
19081 ER
19082
19083 PT J
19084 AU Wang, JM
19085 TI Hoogsteen base-pairing in DNA replication?
19086 SO NATURE
19087 LA English
19088 DT Editorial Material
19089 ID POLYMERASE; IOTA; INHIBITORS; PROTEASE
19090 C1 Yale Univ, Ctr Struct Biol, Dept Mol Biophys & Biochem, New Haven, CT 06520 USA.
19091 RP Wang, JM, Yale Univ, Ctr Struct Biol, Dept Mol Biophys & Biochem, New
19092 Haven, CT 06520 USA.
19093 EM wang@csb.yale.edu
19094 NR 6
19095 TC 0
19096 PU NATURE PUBLISHING GROUP
19097 PI LONDON
19098 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19099 SN 0028-0836
19100 J9 NATURE
19101 JI Nature
19102 PD SEP 15
19103 PY 2005
19104 VL 437
19105 IS 7057
19106 BP E6
19107 EP E7
19108 PG 2
19109 SC Multidisciplinary Sciences
19110 GA 964AS
19111 UT ISI:000231849100036
19112 ER
19113
19114 PT J
19115 AU Aggarwal, A
19116 Nair, D
19117 Johnson, R
19118 Prakash, L
19119 Prakash, S
19120 TI Hoogsteen base-pairing in DNA replication? Reply
19121 SO NATURE
19122 LA English
19123 DT Editorial Material
19124 ID POLYMERASE-IOTA
19125 C1 Mt Sinai Sch Med, Dept Physiol & Biophys, New York, NY 10029 USA.
19126 Univ Texas, Med Branch, Sealy Ctr Mol Sci, Galveston, TX 77755 USA.
19127 RP Aggarwal, A, Mt Sinai Sch Med, Dept Physiol & Biophys, New York, NY
19128 10029 USA.
19129 EM aggarwal@inka.mssm.edu
19130 NR 5
19131 TC 0
19132 PU NATURE PUBLISHING GROUP
19133 PI LONDON
19134 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19135 SN 0028-0836
19136 J9 NATURE
19137 JI Nature
19138 PD SEP 15
19139 PY 2005
19140 VL 437
19141 IS 7057
19142 BP E7
19143 EP E7
19144 PG 1
19145 SC Multidisciplinary Sciences
19146 GA 964AS
19147 UT ISI:000231849100037
19148 ER
19149
19150 PT J
19151 AU Rees, J
19152 TI Bio-oceanography
19153 SO NATURE
19154 LA English
19155 DT Editorial Material
19156 NR 0
19157 TC 0
19158 PU NATURE PUBLISHING GROUP
19159 PI LONDON
19160 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19161 SN 0028-0836
19162 J9 NATURE
19163 JI Nature
19164 PD SEP 15
19165 PY 2005
19166 VL 437
19167 IS 7057
19168 BP 335
19169 EP 335
19170 PG 1
19171 SC Multidisciplinary Sciences
19172 GA 964AS
19173 UT ISI:000231849100038
19174 ER
19175
19176 PT J
19177 AU DeLong, EF
19178 Karl, DM
19179 TI Genomic perspectives in microbial oceanography
19180 SO NATURE
19181 LA English
19182 DT Review
19183 ID SURFACE WATERS; SARGASSO SEA; MARINE; SEQUENCE; BACTERIOPLANKTON;
19184 OCEAN; BACTERIUM; DIVERSITY; EVOLUTION; COMMUNITY
19185 AB The global ocean is an integrated living system where energy and matter
19186 transformations are governed by interdependent physical, chemical and
19187 biotic processes. Although the fundamentals of ocean physics and
19188 chemistry are well established, comprehensive approaches to describing
19189 and interpreting oceanic microbial diversity and processes are only now
19190 emerging. In particular, the application of genomics to problems in
19191 microbial oceanography is significantly expanding our understanding of
19192 marine microbial evolution, metabolism and ecology. Integration of
19193 these new genome-enabled insights into the broader framework of ocean
19194 science represents one of the great contemporary challenges for
19195 microbial oceanographers.
19196 C1 MIT 48 427, Dept Civil & Environm Engn, Cambridge, MA 02139 USA.
19197 MIT 48 427, Div Biol Engn, Cambridge, MA 02139 USA.
19198 Univ Hawaii, Sch Ocean & Earth Sci & Technol, Honolulu, HI 96822 USA.
19199 RP DeLong, EF, MIT 48 427, Dept Civil & Environm Engn, Cambridge, MA 02139
19200 USA.
19201 EM delong@mit.edu
19202 NR 51
19203 TC 0
19204 PU NATURE PUBLISHING GROUP
19205 PI LONDON
19206 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19207 SN 0028-0836
19208 J9 NATURE
19209 JI Nature
19210 PD SEP 15
19211 PY 2005
19212 VL 437
19213 IS 7057
19214 BP 336
19215 EP 342
19216 PG 7
19217 SC Multidisciplinary Sciences
19218 GA 964AS
19219 UT ISI:000231849100039
19220 ER
19221
19222 PT J
19223 AU Giovannoni, SJ
19224 Stingl, U
19225 TI Molecular diversity and ecology of microbial plankton
19226 SO NATURE
19227 LA English
19228 DT Review
19229 ID NORTHWESTERN SARGASSO SEA; DISSOLVED ORGANIC-CARBON; RIBOSOMAL-RNA
19230 GENES; MARINE BACTERIOPLANKTON; PHYLOGENETIC DIVERSITY; COMMUNITY
19231 STRUCTURE; PACIFIC-OCEAN; PROCHLOROCOCCUS ECOTYPES;
19232 SPHINGOMONAS-ALASKENSIS; ATLANTIC-OCEAN
19233 AB The history of microbial evolution in the oceans is probably as old as
19234 the history of life itself. In contrast to terrestrial ecosystems,
19235 microorganisms are the main form of biomass in the oceans, and form
19236 some of the largest populations on the planet. Theory predicts that
19237 selection should act more efficiently in large populations. But whether
19238 microbial plankton populations harbour organisms that are models of
19239 adaptive sophistication remains to be seen. Genome sequence data are
19240 piling up, but most of the key microbial plankton clades have no
19241 cultivated representatives, and information about their ecological
19242 activities is sparse.
19243 C1 Oregon State Univ, Dept Microbiol, Corvallis, OR 97331 USA.
19244 RP Giovannoni, SJ, Oregon State Univ, Dept Microbiol, Corvallis, OR 97331
19245 USA.
19246 EM steve.giovannoni@oregonstate.edu
19247 NR 72
19248 TC 0
19249 PU NATURE PUBLISHING GROUP
19250 PI LONDON
19251 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19252 SN 0028-0836
19253 J9 NATURE
19254 JI Nature
19255 PD SEP 15
19256 PY 2005
19257 VL 437
19258 IS 7057
19259 BP 343
19260 EP 348
19261 PG 6
19262 SC Multidisciplinary Sciences
19263 GA 964AS
19264 UT ISI:000231849100040
19265 ER
19266
19267 PT J
19268 AU Arrigo, KR
19269 TI Marine microorganisms and global nutrient cycles
19270 SO NATURE
19271 LA English
19272 DT Review
19273 ID ANAEROBIC AMMONIUM OXIDATION; NORTH-ATLANTIC OCEAN; BENGUELA UPWELLING
19274 SYSTEM; NITROGEN-FIXATION; PACIFIC-OCEAN; PHYTOPLANKTON GROWTH; N-2
19275 PRODUCTION; CO-LIMITATION; CARBON-CYCLE; PHOSPHORUS
19276 AB The way that nutrients cycle through atmospheric, terrestrial, oceanic
19277 and associated biotic reservoirs can constrain rates of biological
19278 production and help structure ecosystems on land and in the sea. On a
19279 global scale, cycling of nutrients also affects the concentration of
19280 atmospheric carbon dioxide. Because of their capacity for rapid growth,
19281 marine microorganisms are a major component of global nutrient cycles.
19282 Understanding what controls their distributions and their diverse suite
19283 of nutrient transformations is a major challenge facing contemporary
19284 biological oceanographers. What is emerging is an appreciation of the
19285 previously unknown degree of complexity within the marine microbial
19286 community.
19287 C1 Stanford Univ, Dept Geophys, Stanford, CA 94305 USA.
19288 RP Arrigo, KR, Stanford Univ, Dept Geophys, Stanford, CA 94305 USA.
19289 EM arrigo@stanford.edu
19290 NR 74
19291 TC 1
19292 PU NATURE PUBLISHING GROUP
19293 PI LONDON
19294 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19295 SN 0028-0836
19296 J9 NATURE
19297 JI Nature
19298 PD SEP 15
19299 PY 2005
19300 VL 437
19301 IS 7057
19302 BP 349
19303 EP 355
19304 PG 7
19305 SC Multidisciplinary Sciences
19306 GA 964AS
19307 UT ISI:000231849100041
19308 ER
19309
19310 PT J
19311 AU Suttle, CA
19312 TI Viruses in the sea
19313 SO NATURE
19314 LA English
19315 DT Review
19316 ID ALGA HETEROSIGMA-AKASHIWO; MARINE VIRAL COMMUNITIES; COMPLETE GENOME
19317 SEQUENCE; EPIFLUORESCENCE MICROSCOPY; PHOTOSYNTHESIS GENES; AQUATIC
19318 ENVIRONMENTS; COUNTING VIRUSES; BRITISH-COLUMBIA; DNA; DIVERSITY
19319 AB Viruses exist wherever life is found. They are a major cause of
19320 mortality, a driver of global geochemical cycles and a reservoir of the
19321 greatest genetic diversity on Earth. In the oceans, viruses probably
19322 infect all living things, from bacteria to whales. They affect the form
19323 of available nutrients and the termination of algal blooms. Viruses can
19324 move between marine and terrestrial reservoirs, raising the spectre of
19325 emerging pathogens. Our understanding of the effect of viruses on
19326 global systems and processes continues to unfold, overthrowing the idea
19327 that viruses and virus-mediated processes are sidebars to global
19328 processes.
19329 C1 Univ Calif Berkeley, Dept Chem, Berkeley, CA 94720 USA.
19330 Univ Calif Berkeley, Lawrence Berkeley Lab, Berkeley, CA 94720 USA.
19331 RP Suttle, CA, Univ Calif Berkeley, Dept Chem, Berkeley, CA 94720 USA.
19332 EM csuttle@eos.ubc.ca
19333 NR 85
19334 TC 1
19335 PU NATURE PUBLISHING GROUP
19336 PI LONDON
19337 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19338 SN 0028-0836
19339 J9 NATURE
19340 JI Nature
19341 PD SEP 15
19342 PY 2005
19343 VL 437
19344 IS 7057
19345 BP 356
19346 EP 361
19347 PG 6
19348 SC Multidisciplinary Sciences
19349 GA 964AS
19350 UT ISI:000231849100042
19351 ER
19352
19353 PT J
19354 AU Smetacek, V
19355 Nicol, S
19356 TI Polar ocean ecosystems in a changing world
19357 SO NATURE
19358 LA English
19359 DT Review
19360 ID KRILL EUPHAUSIA-SUPERBA; LAST GLACIAL MAXIMUM; SEA-ICE EXTENT;
19361 SOUTHERN-OCEAN; ANTARCTIC KRILL; PACK-ICE; PLEISTOCENE MEGAFAUNA; IRON
19362 FERTILIZATION; MARINE ECOSYSTEMS; CLIMATE-CHANGE
19363 AB Polar organisms have adapted their seasonal cycles to the dynamic
19364 interface between ice and water. This interface ranges from the
19365 micrometre-sized brine channels within sea ice to the planetary-scale
19366 advance and retreat of sea ice. Polar marine ecosystems are
19367 particularly sensitive to climate change because small temperature
19368 differences can have large effects on the extent and thickness of sea
19369 ice. Little is known about the interactions between large, long-lived
19370 organisms and their planktonic food supply. Disentangling the effects
19371 of human exploitation of upper trophic levels from basin-wide,
19372 decade-scale climate cycles to identify long-term, global trends is a
19373 daunting challenge facing polar bio-oceanography.
19374 C1 Alfred Wegener Inst Polar & Marine Res, D-27570 Bremerhaven, Germany.
19375 Australian Antarctic Div, Dept Environm & Heritage, Kingston, Tas 7050, Australia.
19376 RP Smetacek, V, Alfred Wegener Inst Polar & Marine Res, Handelshafen 12,
19377 D-27570 Bremerhaven, Germany.
19378 EM vsmetacek@awi-bremerhaven.de
19379 NR 62
19380 TC 0
19381 PU NATURE PUBLISHING GROUP
19382 PI LONDON
19383 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19384 SN 0028-0836
19385 J9 NATURE
19386 JI Nature
19387 PD SEP 15
19388 PY 2005
19389 VL 437
19390 IS 7057
19391 BP 362
19392 EP 368
19393 PG 7
19394 SC Multidisciplinary Sciences
19395 GA 964AS
19396 UT ISI:000231849100043
19397 ER
19398
19399 PT J
19400 AU Zenz, R
19401 Eferl, R
19402 Kenner, L
19403 Florin, L
19404 Hummerich, L
19405 Mehic, D
19406 Scheuch, H
19407 Angel, P
19408 Tschachler, E
19409 Wagner, EF
19410 TI Psoriasis-like skin disease and arthritis caused by inducible epidermal
19411 deletion of Jun proteins
19412 SO NATURE
19413 LA English
19414 DT Article
19415 ID MICE LACKING JUNB; TRANSGENIC MICE; ACTIVATED KERATINOCYTES;
19416 DOWN-REGULATION; GROWTH-FACTOR; MOUSE MODEL; STEM-CELLS; T-CELLS;
19417 C-JUN; EXPRESSION
19418 AB Psoriasis is a frequent, inflammatory disease of skin and joints with
19419 considerable morbidity. Here we report that in psoriatic lesions,
19420 epidermal keratinocytes have decreased expression of JunB, a gene
19421 localized in the psoriasis susceptibility region PSORS6. Likewise,
19422 inducible epidermal deletion of JunB and its functional companion c-Jun
19423 in adult mice leads ( within two weeks) to a phenotype resembling the
19424 histological and molecular hallmarks of psoriasis, including arthritic
19425 lesions. In contrast to the skin phenotype, the development of
19426 arthritic lesions requires T and B cells and signalling through tumour
19427 necrosis factor receptor 1 ( TNFR1). Prior to the disease onset, two
19428 chemotactic proteins (S100A8 and S100A9) previously mapped to the
19429 psoriasis susceptibility region PSORS4, are strongly induced in mutant
19430 keratinocytes in vivo and in vitro. We propose that the abrogation of
19431 JunB/activator protein 1 (AP-1) in keratinocytes triggers
19432 chemokine/cytokine expression, which recruits neutrophils and
19433 macrophages to the epidermis thereby contributing to the phenotypic
19434 changes observed in psoriasis. Thus, these data support the hypothesis
19435 that epidermal alterations are sufficient to initiate both skin lesions
19436 and arthritis in psoriasis.
19437 C1 Res Inst Mol Pathol, A-1030 Vienna, Austria.
19438 Deutsch Krebsforschungszentrum, Div Signal Transduct & Growth Control, D-69120 Heidelberg, Germany.
19439 Deutsch Krebsforschungszentrum, Div Mol Genet, D-69120 Heidelberg, Germany.
19440 Med Univ Vienna, Dept Dermatol, A-1090 Vienna, Austria.
19441 Ctr Rech & Invest Epiderm & Sensorielles, F-9251 Neuilly, France.
19442 RP Wagner, EF, Res Inst Mol Pathol, Dr Bohr Gasse 7, A-1030 Vienna,
19443 Austria.
19444 EM wagner@imp.univie.ac.at
19445 NR 50
19446 TC 0
19447 PU NATURE PUBLISHING GROUP
19448 PI LONDON
19449 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19450 SN 0028-0836
19451 J9 NATURE
19452 JI Nature
19453 PD SEP 15
19454 PY 2005
19455 VL 437
19456 IS 7057
19457 BP 369
19458 EP 375
19459 PG 7
19460 SC Multidisciplinary Sciences
19461 GA 964AS
19462 UT ISI:000231849100044
19463 ER
19464
19465 PT J
19466 AU Margulies, M
19467 Egholm, M
19468 Altman, WE
19469 Attiya, S
19470 Bader, JS
19471 Bemben, LA
19472 Berka, J
19473 Braverman, MS
19474 Chen, YJ
19475 Chen, ZT
19476 Dewell, SB
19477 Du, L
19478 Fierro, JM
19479 Gomes, XV
19480 Godwin, BC
19481 He, W
19482 Helgesen, S
19483 Ho, CH
19484 Irzyk, GP
19485 Jando, SC
19486 Alenquer, MLI
19487 Jarvie, TP
19488 Jirage, KB
19489 Kim, JB
19490 Knight, JR
19491 Lanza, JR
19492 Leamon, JH
19493 Lefkowitz, SM
19494 Lei, M
19495 Li, J
19496 Lohman, KL
19497 Lu, H
19498 Makhijani, VB
19499 McDade, KE
19500 McKenna, MP
19501 Myers, EW
19502 Nickerson, E
19503 Nobile, JR
19504 Plant, R
19505 Puc, BP
19506 Ronan, MT
19507 Roth, GT
19508 Sarkis, GJ
19509 Simons, JF
19510 Simpson, JW
19511 Srinivasan, M
19512 Tartaro, KR
19513 Tomasz, A
19514 Vogt, KA
19515 Volkmer, GA
19516 Wang, SH
19517 Wang, Y
19518 Weiner, MP
19519 Yu, PG
19520 Begley, RF
19521 Rothberg, JM
19522 TI Genome sequencing in microfabricated high-density picolitre reactors
19523 SO NATURE
19524 LA English
19525 DT Article
19526 ID PYROPHOSPHATE; MOLECULES; EVOLUTION
19527 AB The proliferation of large-scale DNA-sequencing projects in recent
19528 years has driven a search for alternative methods to reduce time and
19529 cost. Here we describe a scalable, highly parallel sequencing system
19530 with raw throughput significantly greater than that of state-of-the-art
19531 capillary electrophoresis instruments. The apparatus uses a novel
19532 fibre-optic slide of individual wells and is able to sequence 25
19533 million bases, at 99% or better accuracy, in one four-hour run. To
19534 achieve an approximately 100-fold increase in throughput over current
19535 Sanger sequencing technology, we have developed an emulsion method for
19536 DNA amplification and an instrument for sequencing by synthesis using a
19537 pyrosequencing protocol optimized for solid support and picolitre-scale
19538 volumes. Here we show the utility, throughput, accuracy and robustness
19539 of this system by shotgun sequencing and de novo assembly of the
19540 Mycoplasma genitalium genome with 96% coverage at 99.96% accuracy in
19541 one run of the machine.
19542 C1 Life Sci Corp 454, Branford, CT 06405 USA.
19543 Univ Calif Berkeley, Berkeley, CA 94720 USA.
19544 Rockefeller Univ, Microbiol Lab, New York, NY 10021 USA.
19545 Rothberg Inst Childhood Dis, Guilford, CT 06437 USA.
19546 RP Rothberg, JM, Life Sci Corp 454, 20 Commercial St, Branford, CT 06405
19547 USA.
19548 EM jrothberg@454.com
19549 NR 22
19550 TC 5
19551 PU NATURE PUBLISHING GROUP
19552 PI LONDON
19553 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19554 SN 0028-0836
19555 J9 NATURE
19556 JI Nature
19557 PD SEP 15
19558 PY 2005
19559 VL 437
19560 IS 7057
19561 BP 376
19562 EP 380
19563 PG 5
19564 SC Multidisciplinary Sciences
19565 GA 964AS
19566 UT ISI:000231849100045
19567 ER
19568
19569 PT J
19570 AU Magain, P
19571 Letawe, G
19572 Courbin, F
19573 Jablonka, P
19574 Jahnke, K
19575 Meylan, G
19576 Wisotzki, L
19577 TI Discovery of a bright quasar without a massive host galaxy
19578 SO NATURE
19579 LA English
19580 DT Article
19581 ID NEARBY LUMINOUS QUASARS; STELLAR OBJECTS; BLACK-HOLES; IMAGES;
19582 DECONVOLUTION; SPECTROSCOPY; BULGE
19583 AB A quasar is thought to be powered by the infall of matter onto a
19584 supermassive black hole at the centre of a massive galaxy(1,2). Because
19585 the optical luminosity of quasars exceeds that of their host galaxy,
19586 disentangling the two components can be difficult. This led in the
19587 1990s to the controversial claim of the discovery of 'naked'
19588 quasars(3-7). Since then, the connection between quasars and galaxies
19589 has been well established(8). Here we report the discovery of a quasar
19590 lying at the edge of a gas cloud, whose size is comparable to that of a
19591 small galaxy, but whose spectrum shows no evidence for stars. The gas
19592 in the cloud is excited by the quasar itself. If a host galaxy is
19593 present, it is at least six times fainter than would normally be
19594 expected(8,9) for such a bright quasar. The quasar is interacting
19595 dynamically with a neighbouring galaxy, whose gas might be feeding the
19596 black hole.
19597 C1 Univ Liege, Inst Astrophys & Geophys, B-4000 Liege, Belgium.
19598 Ecole Polytech Fed Lausanne, Astrophys Lab, CH-1290 Sauverny, Switzerland.
19599 Univ Geneve Observ, CH-1290 Sauverny, Switzerland.
19600 Observ Paris, UMR 8111, GEPI, F-75014 Paris, France.
19601 Astrophys Inst Potsdam, D-14482 Potsdam, Germany.
19602 RP Magain, P, Univ Liege, Inst Astrophys & Geophys, Allee 6 Aout,17,Bat
19603 B5C, B-4000 Liege, Belgium.
19604 EM Pierre.Magain@ulg.ac.be
19605 NR 21
19606 TC 0
19607 PU NATURE PUBLISHING GROUP
19608 PI LONDON
19609 PA MACMILLAN BUILDING, 4 CRINAN ST, LONDON N1 9XW, ENGLAND
19610 SN 0028-0836
19611 J9 NATURE
19612 JI Nature
19613 PD SEP 15
19614 PY 2005
19615 VL 437
19616 IS 7057
19617 BP 381
19618 EP 384
19619 PG 4
19620 SC Multidisciplinary Sciences
19621 GA 964AS
19622 UT ISI:000231849100046
19623 ER
19624
19625 EF