Wheeler DA

References (8)

Title : The genome sequence of taurine cattle: a window to ruminant biology and evolution - Elsik_2009_Science_324_522
Author(s) : Elsik CG , Tellam RL , Worley KC , Gibbs RA , Muzny DM , Weinstock GM , Adelson DL , Eichler EE , Elnitski L , Guigo R , Hamernik DL , Kappes SM , Lewin HA , Lynn DJ , Nicholas FW , Reymond A , Rijnkels M , Skow LC , Zdobnov EM , Schook L , Womack J , Alioto T , Antonarakis SE , Astashyn A , Chapple CE , Chen HC , Chrast J , Camara F , Ermolaeva O , Henrichsen CN , Hlavina W , Kapustin Y , Kiryutin B , Kitts P , Kokocinski F , Landrum M , Maglott D , Pruitt K , Sapojnikov V , Searle SM , Solovyev V , Souvorov A , Ucla C , Wyss C , Anzola JM , Gerlach D , Elhaik E , Graur D , Reese JT , Edgar RC , McEwan JC , Payne GM , Raison JM , Junier T , Kriventseva EV , Eyras E , Plass M , Donthu R , Larkin DM , Reecy J , Yang MQ , Chen L , Cheng Z , Chitko-McKown CG , Liu GE , Matukumalli LK , Song J , Zhu B , Bradley DG , Brinkman FS , Lau LP , Whiteside MD , Walker A , Wheeler TT , Casey T , German JB , Lemay DG , Maqbool NJ , Molenaar AJ , Seo S , Stothard P , Baldwin CL , Baxter R , Brinkmeyer-Langford CL , Brown WC , Childers CP , Connelley T , Ellis SA , Fritz K , Glass EJ , Herzig CT , Iivanainen A , Lahmers KK , Bennett AK , Dickens CM , Gilbert JG , Hagen DE , Salih H , Aerts J , Caetano AR , Dalrymple B , Garcia JF , Gill CA , Hiendleder SG , Memili E , Spurlock D , Williams JL , Alexander L , Brownstein MJ , Guan L , Holt RA , Jones SJ , Marra MA , Moore R , Moore SS , Roberts A , Taniguchi M , Waterman RC , Chacko J , Chandrabose MM , Cree A , Dao MD , Dinh HH , Gabisi RA , Hines S , Hume J , Jhangiani SN , Joshi V , Kovar CL , Lewis LR , Liu YS , Lopez J , Morgan MB , Nguyen NB , Okwuonu GO , Ruiz SJ , Santibanez J , Wright RA , Buhay C , Ding Y , Dugan-Rocha S , Herdandez J , Holder M , Sabo A , Egan A , Goodell J , Wilczek-Boney K , Fowler GR , Hitchens ME , Lozado RJ , Moen C , Steffen D , Warren JT , Zhang J , Chiu R , Schein JE , Durbin KJ , Havlak P , Jiang H , Liu Y , Qin X , Ren Y , Shen Y , Song H , Bell SN , Davis C , Johnson AJ , Lee S , Nazareth LV , Patel BM , Pu LL , Vattathil S , Williams RL, Jr. , Curry S , Hamilton C , Sodergren E , Wheeler DA , Barris W , Bennett GL , Eggen A , Green RD , Harhay GP , Hobbs M , Jann O , Keele JW , Kent MP , Lien S , McKay SD , McWilliam S , Ratnakumar A , Schnabel RD , Smith T , Snelling WM , Sonstegard TS , Stone RT , Sugimoto Y , Takasuga A , Taylor JF , Van Tassell CP , Macneil MD , Abatepaulo AR , Abbey CA , Ahola V , Almeida IG , Amadio AF , Anatriello E , Bahadue SM , Biase FH , Boldt CR , Carroll JA , Carvalho WA , Cervelatti EP , Chacko E , Chapin JE , Cheng Y , Choi J , Colley AJ , de Campos TA , De Donato M , Santos IK , de Oliveira CJ , Deobald H , Devinoy E , Donohue KE , Dovc P , Eberlein A , Fitzsimmons CJ , Franzin AM , Garcia GR , Genini S , Gladney CJ , Grant JR , Greaser ML , Green JA , Hadsell DL , Hakimov HA , Halgren R , Harrow JL , Hart EA , Hastings N , Hernandez M , Hu ZL , Ingham A , Iso-Touru T , Jamis C , Jensen K , Kapetis D , Kerr T , Khalil SS , Khatib H , Kolbehdari D , Kumar CG , Kumar D , Leach R , Lee JC , Li C , Logan KM , Malinverni R , Marques E , Martin WF , Martins NF , Maruyama SR , Mazza R , McLean KL , Medrano JF , Moreno BT , More DD , Muntean CT , Nandakumar HP , Nogueira MF , Olsaker I , Pant SD , Panzitta F , Pastor RC , Poli MA , Poslusny N , Rachagani S , Ranganathan S , Razpet A , Riggs PK , Rincon G , Rodriguez-Osorio N , Rodriguez-Zas SL , Romero NE , Rosenwald A , Sando L , Schmutz SM , Shen L , Sherman L , Southey BR , Lutzow YS , Sweedler JV , Tammen I , Telugu BP , Urbanski JM , Utsunomiya YT , Verschoor CP , Waardenberg AJ , Wang Z , Ward R , Weikard R , Welsh TH, Jr. , White SN , Wilming LG , Wunderlich KR , Yang J , Zhao FQ
Ref : Science , 324 :522 , 2009
Abstract : To understand the biology and evolution of ruminants, the cattle genome was sequenced to about sevenfold coverage. The cattle genome contains a minimum of 22,000 genes, with a core set of 14,345 orthologs shared among seven mammalian species of which 1217 are absent or undetected in noneutherian (marsupial or monotreme) genomes. Cattle-specific evolutionary breakpoint regions in chromosomes have a higher density of segmental duplications, enrichment of repetitive elements, and species-specific variations in genes associated with lactation and immune responsiveness. Genes involved in metabolism are generally highly conserved, although five metabolic genes are deleted or extensively diverged from their human orthologs. The cattle genome sequence thus provides a resource for understanding mammalian evolution and accelerating livestock genetic improvement for milk and meat production.
ESTHER : Elsik_2009_Science_324_522
PubMedSearch : Elsik_2009_Science_324_522
PubMedID: 19390049
Gene_locus related to this paper: bovin-2neur , bovin-a0jnh8 , bovin-a5d7b7 , bovin-ACHE , bovin-balip , bovin-dpp4 , bovin-dpp6 , bovin-e1bi31 , bovin-e1bn79 , bovin-est8 , bovin-f1mbd6 , bovin-f1mi11 , bovin-f1mr65 , bovin-f1n1l4 , bovin-g3mxp5 , bovin-q0vcc8 , bovin-q2kj30 , bovin-q3t0r6 , bovin-thyro

Title : Evolutionary and biomedical insights from the rhesus macaque genome - Gibbs_2007_Science_316_222
Author(s) : Gibbs RA , Rogers J , Katze MG , Bumgarner R , Weinstock GM , Mardis ER , Remington KA , Strausberg RL , Venter JC , Wilson RK , Batzer MA , Bustamante CD , Eichler EE , Hahn MW , Hardison RC , Makova KD , Miller W , Milosavljevic A , Palermo RE , Siepel A , Sikela JM , Attaway T , Bell S , Bernard KE , Buhay CJ , Chandrabose MN , Dao M , Davis C , Delehaunty KD , Ding Y , Dinh HH , Dugan-Rocha S , Fulton LA , Gabisi RA , Garner TT , Godfrey J , Hawes AC , Hernandez J , Hines S , Holder M , Hume J , Jhangiani SN , Joshi V , Khan ZM , Kirkness EF , Cree A , Fowler RG , Lee S , Lewis LR , Li Z , Liu YS , Moore SM , Muzny D , Nazareth LV , Ngo DN , Okwuonu GO , Pai G , Parker D , Paul HA , Pfannkoch C , Pohl CS , Rogers YH , Ruiz SJ , Sabo A , Santibanez J , Schneider BW , Smith SM , Sodergren E , Svatek AF , Utterback TR , Vattathil S , Warren W , White CS , Chinwalla AT , Feng Y , Halpern AL , Hillier LW , Huang X , Minx P , Nelson JO , Pepin KH , Qin X , Sutton GG , Venter E , Walenz BP , Wallis JW , Worley KC , Yang SP , Jones SM , Marra MA , Rocchi M , Schein JE , Baertsch R , Clarke L , Csuros M , Glasscock J , Harris RA , Havlak P , Jackson AR , Jiang H , Liu Y , Messina DN , Shen Y , Song HX , Wylie T , Zhang L , Birney E , Han K , Konkel MK , Lee J , Smit AF , Ullmer B , Wang H , Xing J , Burhans R , Cheng Z , Karro JE , Ma J , Raney B , She X , Cox MJ , Demuth JP , Dumas LJ , Han SG , Hopkins J , Karimpour-Fard A , Kim YH , Pollack JR , Vinar T , Addo-Quaye C , Degenhardt J , Denby A , Hubisz MJ , Indap A , Kosiol C , Lahn BT , Lawson HA , Marklein A , Nielsen R , Vallender EJ , Clark AG , Ferguson B , Hernandez RD , Hirani K , Kehrer-Sawatzki H , Kolb J , Patil S , Pu LL , Ren Y , Smith DG , Wheeler DA , Schenck I , Ball EV , Chen R , Cooper DN , Giardine B , Hsu F , Kent WJ , Lesk A , Nelson DL , O'Brien W E , Prufer K , Stenson PD , Wallace JC , Ke H , Liu XM , Wang P , Xiang AP , Yang F , Barber GP , Haussler D , Karolchik D , Kern AD , Kuhn RM , Smith KE , Zwieg AS
Ref : Science , 316 :222 , 2007
Abstract : The rhesus macaque (Macaca mulatta) is an abundant primate species that diverged from the ancestors of Homo sapiens about 25 million years ago. Because they are genetically and physiologically similar to humans, rhesus monkeys are the most widely used nonhuman primate in basic and applied biomedical research. We determined the genome sequence of an Indian-origin Macaca mulatta female and compared the data with chimpanzees and humans to reveal the structure of ancestral primate genomes and to identify evidence for positive selection and lineage-specific expansions and contractions of gene families. A comparison of sequences from individual animals was used to investigate their underlying genetic diversity. The complete description of the macaque genome blueprint enhances the utility of this animal model for biomedical research and improves our understanding of the basic biology of the species.
ESTHER : Gibbs_2007_Science_316_222
PubMedSearch : Gibbs_2007_Science_316_222
PubMedID: 17431167
Gene_locus related to this paper: macmu-3neur , macmu-ACHE , macmu-BCHE , macmu-f6rul6 , macmu-f6sz31 , macmu-f6the6 , macmu-f6unj2 , macmu-f6wtx1 , macmu-f6zkq5 , macmu-f7aa58 , macmu-f7ai42 , macmu-f7aim4 , macmu-f7buk8 , macmu-f7cfi8 , macmu-f7cnr2 , macmu-f7cu68 , macmu-f7flv1 , macmu-f7ggk1 , macmu-f7hir7 , macmu-g7n054 , macmu-KANSL3 , macmu-TEX30 , macmu-Y4neur , macmu-g7n4x3 , macmu-i2cy02 , macmu-f7ba84 , macmu-CES2 , macmu-h9er02 , macmu-a0a1d5rbr3 , macmu-a0a1d5q4k5 , macmu-g7mxj6 , macmu-f7dn71 , macmu-f7hkw9 , macmu-f7hm08 , macmu-g7mke4 , macmu-a0a1d5rh04 , macmu-h9fud6 , macmu-f6qwx1 , macmu-f7h4t2 , macmu-h9zaw9 , macmu-f7h550 , macmu-a0a1d5q9w1 , macmu-f7gkb9 , macmu-f7hp78 , macmu-a0a1d5qvu5

Title : The DNA sequence, annotation and analysis of human chromosome 3 - Muzny_2006_Nature_440_1194
Author(s) : Muzny DM , Scherer SE , Kaul R , Wang J , Yu J , Sudbrak R , Buhay CJ , Chen R , Cree A , Ding Y , Dugan-Rocha S , Gill R , Gunaratne P , Harris RA , Hawes AC , Hernandez J , Hodgson AV , Hume J , Jackson A , Khan ZM , Kovar-Smith C , Lewis LR , Lozado RJ , Metzker ML , Milosavljevic A , Miner GR , Morgan MB , Nazareth LV , Scott G , Sodergren E , Song XZ , Steffen D , Wei S , Wheeler DA , Wright MW , Worley KC , Yuan Y , Zhang Z , Adams CQ , Ansari-Lari MA , Ayele M , Brown MJ , Chen G , Chen Z , Clendenning J , Clerc-Blankenburg KP , Davis C , Delgado O , Dinh HH , Dong W , Draper H , Ernst S , Fu G , Gonzalez-Garay ML , Garcia DK , Gillett W , Gu J , Hao B , Haugen E , Havlak P , He X , Hennig S , Hu S , Huang W , Jackson LR , Jacob LS , Kelly SH , Kube M , Levy R , Li Z , Liu B , Liu J , Liu W , Lu J , Maheshwari M , Nguyen BV , Okwuonu GO , Palmeiri A , Pasternak S , Perez LM , Phelps KA , Plopper FJ , Qiang B , Raymond C , Rodriguez R , Saenphimmachak C , Santibanez J , Shen H , Shen Y , Subramanian S , Tabor PE , Verduzco D , Waldron L , Wang Q , Williams GA , Wong GK , Yao Z , Zhang J , Zhang X , Zhao G , Zhou J , Zhou Y , Nelson D , Lehrach H , Reinhardt R , Naylor SL , Yang H , Olson M , Weinstock G , Gibbs RA
Ref : Nature , 440 :1194 , 2006
Abstract : After the completion of a draft human genome sequence, the International Human Genome Sequencing Consortium has proceeded to finish and annotate each of the 24 chromosomes comprising the human genome. Here we describe the sequencing and analysis of human chromosome 3, one of the largest human chromosomes. Chromosome 3 comprises just four contigs, one of which currently represents the longest unbroken stretch of finished DNA sequence known so far. The chromosome is remarkable in having the lowest rate of segmental duplication in the genome. It also includes a chemokine receptor gene cluster as well as numerous loci involved in multiple human cancers such as the gene encoding FHIT, which contains the most common constitutive fragile site in the genome, FRA3B. Using genomic sequence from chimpanzee and rhesus macaque, we were able to characterize the breakpoints defining a large pericentric inversion that occurred some time after the split of Homininae from Ponginae, and propose an evolutionary history of the inversion.
ESTHER : Muzny_2006_Nature_440_1194
PubMedSearch : Muzny_2006_Nature_440_1194
PubMedID: 16641997
Gene_locus related to this paper: human-AADAC , human-AADACL2 , human-ABHD5 , human-ABHD6 , human-ABHD10 , human-ABHD14A , human-APEH , human-BCHE , human-CIB , human-LIPH , human-MGLL , human-NLGN1 , human-PLA1A

Title : The DNA sequence of the human X chromosome - Ross_2005_Nature_434_325
Author(s) : Ross MT , Grafham DV , Coffey AJ , Scherer S , McLay K , Muzny D , Platzer M , Howell GR , Burrows C , Bird CP , Frankish A , Lovell FL , Howe KL , Ashurst JL , Fulton RS , Sudbrak R , Wen G , Jones MC , Hurles ME , Andrews TD , Scott CE , Searle S , Ramser J , Whittaker A , Deadman R , Carter NP , Hunt SE , Chen R , Cree A , Gunaratne P , Havlak P , Hodgson A , Metzker ML , Richards S , Scott G , Steffen D , Sodergren E , Wheeler DA , Worley KC , Ainscough R , Ambrose KD , Ansari-Lari MA , Aradhya S , Ashwell RI , Babbage AK , Bagguley CL , Ballabio A , Banerjee R , Barker GE , Barlow KF , Barrett IP , Bates KN , Beare DM , Beasley H , Beasley O , Beck A , Bethel G , Blechschmidt K , Brady N , Bray-Allen S , Bridgeman AM , Brown AJ , Brown MJ , Bonnin D , Bruford EA , Buhay C , Burch P , Burford D , Burgess J , Burrill W , Burton J , Bye JM , Carder C , Carrel L , Chako J , Chapman JC , Chavez D , Chen E , Chen G , Chen Y , Chen Z , Chinault C , Ciccodicola A , Clark SY , Clarke G , Clee CM , Clegg S , Clerc-Blankenburg K , Clifford K , Cobley V , Cole CG , Conquer JS , Corby N , Connor RE , David R , Davies J , Davis C , Davis J , Delgado O , Deshazo D , Dhami P , Ding Y , Dinh H , Dodsworth S , Draper H , Dugan-Rocha S , Dunham A , Dunn M , Durbin KJ , Dutta I , Eades T , Ellwood M , Emery-Cohen A , Errington H , Evans KL , Faulkner L , Francis F , Frankland J , Fraser AE , Galgoczy P , Gilbert J , Gill R , Glockner G , Gregory SG , Gribble S , Griffiths C , Grocock R , Gu Y , Gwilliam R , Hamilton C , Hart EA , Hawes A , Heath PD , Heitmann K , Hennig S , Hernandez J , Hinzmann B , Ho S , Hoffs M , Howden PJ , Huckle EJ , Hume J , Hunt PJ , Hunt AR , Isherwood J , Jacob L , Johnson D , Jones S , de Jong PJ , Joseph SS , Keenan S , Kelly S , Kershaw JK , Khan Z , Kioschis P , Klages S , Knights AJ , Kosiura A , Kovar-Smith C , Laird GK , Langford C , Lawlor S , Leversha M , Lewis L , Liu W , Lloyd C , Lloyd DM , Loulseged H , Loveland JE , Lovell JD , Lozado R , Lu J , Lyne R , Ma J , Maheshwari M , Matthews LH , McDowall J , Mclaren S , McMurray A , Meidl P , Meitinger T , Milne S , Miner G , Mistry SL , Morgan M , Morris S , Muller I , Mullikin JC , Nguyen N , Nordsiek G , Nyakatura G , O'Dell CN , Okwuonu G , Palmer S , Pandian R , Parker D , Parrish J , Pasternak S , Patel D , Pearce AV , Pearson DM , Pelan SE , Perez L , Porter KM , Ramsey Y , Reichwald K , Rhodes S , Ridler KA , Schlessinger D , Schueler MG , Sehra HK , Shaw-Smith C , Shen H , Sheridan EM , Shownkeen R , Skuce CD , Smith ML , Sotheran EC , Steingruber HE , Steward CA , Storey R , Swann RM , Swarbreck D , Tabor PE , Taudien S , Taylor T , Teague B , Thomas K , Thorpe A , Timms K , Tracey A , Trevanion S , Tromans AC , d'Urso M , Verduzco D , Villasana D , Waldron L , Wall M , Wang Q , Warren J , Warry GL , Wei X , West A , Whitehead SL , Whiteley MN , Wilkinson JE , Willey DL , Williams G , Williams L , Williamson A , Williamson H , Wilming L , Woodmansey RL , Wray PW , Yen J , Zhang J , Zhou J , Zoghbi H , Zorilla S , Buck D , Reinhardt R , Poustka A , Rosenthal A , Lehrach H , Meindl A , Minx PJ , Hillier LW , Willard HF , Wilson RK , Waterston RH , Rice CM , Vaudin M , Coulson A , Nelson DL , Weinstock G , Sulston JE , Durbin R , Hubbard T , Gibbs RA , Beck S , Rogers J , Bentley DR
Ref : Nature , 434 :325 , 2005
Abstract : The human X chromosome has a unique biology that was shaped by its evolution as the sex chromosome shared by males and females. We have determined 99.3% of the euchromatic sequence of the X chromosome. Our analysis illustrates the autosomal origin of the mammalian sex chromosomes, the stepwise process that led to the progressive loss of recombination between X and Y, and the extent of subsequent degradation of the Y chromosome. LINE1 repeat elements cover one-third of the X chromosome, with a distribution that is consistent with their proposed role as way stations in the process of X-chromosome inactivation. We found 1,098 genes in the sequence, of which 99 encode proteins expressed in testis and in various tumour types. A disproportionately high number of mendelian diseases are documented for the X chromosome. Of this number, 168 have been explained by mutations in 113 X-linked genes, which in many cases were characterized with the aid of the DNA sequence.
ESTHER : Ross_2005_Nature_434_325
PubMedSearch : Ross_2005_Nature_434_325
PubMedID: 15772651
Gene_locus related to this paper: human-NLGN3 , human-NLGN4X

Title : Comparative genome sequencing of Drosophila pseudoobscura: chromosomal, gene, and cis-element evolution - Richards_2005_Genome.Res_15_1
Author(s) : Richards S , Liu Y , Bettencourt BR , Hradecky P , Letovsky S , Nielsen R , Thornton K , Hubisz MJ , Chen R , Meisel RP , Couronne O , Hua S , Smith MA , Zhang P , Liu J , Bussemaker HJ , van Batenburg MF , Howells SL , Scherer SE , Sodergren E , Matthews BB , Crosby MA , Schroeder AJ , Ortiz-Barrientos D , Rives CM , Metzker ML , Muzny DM , Scott G , Steffen D , Wheeler DA , Worley KC , Havlak P , Durbin KJ , Egan A , Gill R , Hume J , Morgan MB , Miner G , Hamilton C , Huang Y , Waldron L , Verduzco D , Clerc-Blankenburg KP , Dubchak I , Noor MA , Anderson W , White KP , Clark AG , Schaeffer SW , Gelbart W , Weinstock GM , Gibbs RA
Ref : Genome Res , 15 :1 , 2005
Abstract : We have sequenced the genome of a second Drosophila species, Drosophila pseudoobscura, and compared this to the genome sequence of Drosophila melanogaster, a primary model organism. Throughout evolution the vast majority of Drosophila genes have remained on the same chromosome arm, but within each arm gene order has been extensively reshuffled, leading to a minimum of 921 syntenic blocks shared between the species. A repetitive sequence is found in the D. pseudoobscura genome at many junctions between adjacent syntenic blocks. Analysis of this novel repetitive element family suggests that recombination between offset elements may have given rise to many paracentric inversions, thereby contributing to the shuffling of gene order in the D. pseudoobscura lineage. Based on sequence similarity and synteny, 10,516 putative orthologs have been identified as a core gene set conserved over 25-55 million years (Myr) since the pseudoobscura/melanogaster divergence. Genes expressed in the testes had higher amino acid sequence divergence than the genome-wide average, consistent with the rapid evolution of sex-specific proteins. Cis-regulatory sequences are more conserved than random and nearby sequences between the species--but the difference is slight, suggesting that the evolution of cis-regulatory elements is flexible. Overall, a pattern of repeat-mediated chromosomal rearrangement, and high coadaptation of both male genes and cis-regulatory sequences emerges as important themes of genome divergence between these species of Drosophila.
ESTHER : Richards_2005_Genome.Res_15_1
PubMedSearch : Richards_2005_Genome.Res_15_1
PubMedID: 15632085
Gene_locus related to this paper: drome-BEM46 , drome-GH02439 , drops-ACHE , drops-b5dhd2 , drops-b5di70 , drops-b5djn7 , drops-b5dk96 , drops-b5dm12 , drops-b5dpe3 , drops-b5drp9 , drops-b5du62 , drops-b5dud8 , drops-b5dwa7 , drops-b5dwa8 , drops-b5dy09 , drops-b5dz85 , drops-b5dz86 , drops-b5e1k7 , drops-CG4390 , drops-est5a , drops-est5b , drops-est5c , drops-nrtac , drops-q2lyp3 , drops-q2lyp4 , drops-q2lyu3 , drops-q2lz68 , drops-q2m0u9 , drops-q2m169 , drops-q28wj5 , drops-q28wt2 , drops-q28wt8 , drops-q28zi3 , drops-q28zz1 , drops-q29a22 , drops-q29ad8 , drops-q29ad9 , drops-q29ae0 , drops-q29ae1 , drops-q29ay7 , drops-q29ay8 , drops-q29ay9 , drops-q29bq2 , drops-q29br3 , drops-q29d59 , drops-q29dc9 , drops-q29dd7 , drops-q29dp4 , drops-q29dw3 , drops-q29dw4 , drops-q29e16 , drops-q29ew0 , drops-q29f35 , drops-q29f66 , drops-q29fi0 , drops-q29fw0 , drops-q29fw9 , drops-q29g93 , drops-q29gb0 , drops-q29gs6 , drops-q29h54 , drops-b5dmp7 , drops-q29hd2 , drops-q29hu2 , drops-q29hu3 , drops-q29hv0 , drops-q29i09 , drops-q29js9 , drops-q29jt5 , drops-q29jt6 , drops-q29jy5 , drops-q29k25 , drops-q29kd5 , drops-q29kd6 , drops-q29ke5 , drops-q29kq9 , drops-q29kr1 , drops-q29kr3 , drops-q29kr5 , drops-q29kr8 , drops-q29kr9 , drops-q29ks6 , drops-q29kz0 , drops-q29kz1 , drops-q29l31 , drops-q29lf8 , drops-q29lv0 , drops-q29m07 , drops-q29m08 , drops-q29m27 , drops-q29m66 , drops-q29m81 , drops-q29mj7 , drops-q29mv2 , drops-q29mx0 , drops-q29n87 , drops-q29na5 , drops-q29na6 , drops-q29pe4 , drops-q29pk4 , drops-q290i1 , drops-q290k3 , drops-q290v8 , drops-q290v9 , drops-q290w0 , drops-q290z8 , drops-q291d5 , drops-q291e8 , drops-q291y3 , drops-q292f5 , drops-q292g6 , drops-q293n1 , drops-q293n4 , drops-q293n5 , drops-q293n6 , drops-q293y7 , drops-q294n3 , drops-q294n6 , drops-q294n7 , drops-q294n9 , drops-q294p0 , drops-q294p1 , drops-q294p3 , drops-q294p4 , drops-q294u9 , drops-q295h3 , drops-q296h2 , drops-q296x1 , drops-q296x2 , drops-q297h5 , drops-q298u8 , drope-b4gkk1

Title : Genome sequence of the Brown Norway rat yields insights into mammalian evolution - Gibbs_2004_Nature_428_493
Author(s) : Gibbs RA , Weinstock GM , Metzker ML , Muzny DM , Sodergren EJ , Scherer S , Scott G , Steffen D , Worley KC , Burch PE , Okwuonu G , Hines S , Lewis L , DeRamo C , Delgado O , Dugan-Rocha S , Miner G , Morgan M , Hawes A , Gill R , Celera , Holt RA , Adams MD , Amanatides PG , Baden-Tillson H , Barnstead M , Chin S , Evans CA , Ferriera S , Fosler C , Glodek A , Gu Z , Jennings D , Kraft CL , Nguyen T , Pfannkoch CM , Sitter C , Sutton GG , Venter JC , Woodage T , Smith D , Lee HM , Gustafson E , Cahill P , Kana A , Doucette-Stamm L , Weinstock K , Fechtel K , Weiss RB , Dunn DM , Green ED , Blakesley RW , Bouffard GG , de Jong PJ , Osoegawa K , Zhu B , Marra M , Schein J , Bosdet I , Fjell C , Jones S , Krzywinski M , Mathewson C , Siddiqui A , Wye N , McPherson J , Zhao S , Fraser CM , Shetty J , Shatsman S , Geer K , Chen Y , Abramzon S , Nierman WC , Havlak PH , Chen R , Durbin KJ , Egan A , Ren Y , Song XZ , Li B , Liu Y , Qin X , Cawley S , Cooney AJ , D'Souza LM , Martin K , Wu JQ , Gonzalez-Garay ML , Jackson AR , Kalafus KJ , McLeod MP , Milosavljevic A , Virk D , Volkov A , Wheeler DA , Zhang Z , Bailey JA , Eichler EE , Tuzun E , Birney E , Mongin E , Ureta-Vidal A , Woodwark C , Zdobnov E , Bork P , Suyama M , Torrents D , Alexandersson M , Trask BJ , Young JM , Huang H , Wang H , Xing H , Daniels S , Gietzen D , Schmidt J , Stevens K , Vitt U , Wingrove J , Camara F , Mar Alba M , Abril JF , Guigo R , Smit A , Dubchak I , Rubin EM , Couronne O , Poliakov A , Hubner N , Ganten D , Goesele C , Hummel O , Kreitler T , Lee YA , Monti J , Schulz H , Zimdahl H , Himmelbauer H , Lehrach H , Jacob HJ , Bromberg S , Gullings-Handley J , Jensen-Seaman MI , Kwitek AE , Lazar J , Pasko D , Tonellato PJ , Twigger S , Ponting CP , Duarte JM , Rice S , Goodstadt L , Beatson SA , Emes RD , Winter EE , Webber C , Brandt P , Nyakatura G , Adetobi M , Chiaromonte F , Elnitski L , Eswara P , Hardison RC , Hou M , Kolbe D , Makova K , Miller W , Nekrutenko A , Riemer C , Schwartz S , Taylor J , Yang S , Zhang Y , Lindpaintner K , Andrews TD , Caccamo M , Clamp M , Clarke L , Curwen V , Durbin R , Eyras E , Searle SM , Cooper GM , Batzoglou S , Brudno M , Sidow A , Stone EA , Payseur BA , Bourque G , Lopez-Otin C , Puente XS , Chakrabarti K , Chatterji S , Dewey C , Pachter L , Bray N , Yap VB , Caspi A , Tesler G , Pevzner PA , Haussler D , Roskin KM , Baertsch R , Clawson H , Furey TS , Hinrichs AS , Karolchik D , Kent WJ , Rosenbloom KR , Trumbower H , Weirauch M , Cooper DN , Stenson PD , Ma B , Brent M , Arumugam M , Shteynberg D , Copley RR , Taylor MS , Riethman H , Mudunuri U , Peterson J , Guyer M , Felsenfeld A , Old S , Mockrin S , Collins F
Ref : Nature , 428 :493 , 2004
Abstract : The laboratory rat (Rattus norvegicus) is an indispensable tool in experimental medicine and drug development, having made inestimable contributions to human health. We report here the genome sequence of the Brown Norway (BN) rat strain. The sequence represents a high-quality 'draft' covering over 90% of the genome. The BN rat sequence is the third complete mammalian genome to be deciphered, and three-way comparisons with the human and mouse genomes resolve details of mammalian evolution. This first comprehensive analysis includes genes and proteins and their relation to human disease, repeated sequences, comparative genome-wide studies of mammalian orthologous chromosomal regions and rearrangement breakpoints, reconstruction of ancestral karyotypes and the events leading to existing species, rates of variation, and lineage-specific and lineage-independent evolutionary events such as expansion of gene families, orthology relations and protein evolution.
ESTHER : Gibbs_2004_Nature_428_493
PubMedSearch : Gibbs_2004_Nature_428_493
PubMedID: 15057822
Gene_locus related to this paper: rat-abhea , rat-abheb , rat-cd029 , rat-d3zaw4 , rat-dpp9 , rat-d3zhq1 , rat-d3zkp8 , rat-d3zuq1 , rat-d3zxw8 , rat-d4a4w4 , rat-d4a7w1 , rat-d4a9l7 , rat-d4a071 , rat-d4aa31 , rat-d4aa33 , rat-d4aa61 , rat-dglb , rat-f1lz91 , rat-Kansl3 , rat-nceh1 , rat-Tex30 , ratno-1hlip , ratno-1neur , ratno-1plip , ratno-2neur , ratno-3neur , ratno-3plip , ratno-ABH15 , ratno-ACHE , ratno-balip , ratno-BCHE , ratno-cauxin , ratno-Ces1d , ratno-Ces1e , ratno-Ces2f , ratno-d3ze31 , ratno-d3zp14 , ratno-d3zxi3 , ratno-d3zxq0 , ratno-d3zxq1 , ratno-d4a3d4 , ratno-d4aa05 , ratno-dpp4 , ratno-dpp6 , ratno-est8 , ratno-FAP , ratno-hyep , ratno-hyes , ratno-kmcxe , ratno-lmcxe , ratno-LOC246252 , ratno-MGLL , ratno-pbcxe , ratno-phebest , ratno-Ppgb , ratno-q4qr68 , ratno-q6ayr2 , ratno-q6q629 , ratno-SPG21 , ratno-thyro , rat-m0rc77 , rat-a0a0g2k9y7 , rat-a0a0g2kb83 , rat-d3zba8 , rat-d3zbj1 , rat-d3zcr8 , rat-d3zxw5 , rat-d4a340 , rat-f1lvg7 , rat-m0r509 , rat-m0r5d4 , rat-b5den3 , rat-d3zxk4 , rat-d4a1b6 , rat-d3zmg4 , rat-ab17c

Title : Finishing a whole-genome shotgun: release 3 of the Drosophila melanogaster euchromatic genome sequence - Celniker_2002_Genome.Biol_3_RESEARCH0079
Author(s) : Celniker SE , Wheeler DA , Kronmiller B , Carlson JW , Halpern A , Patel S , Adams M , Champe M , Dugan SP , Frise E , Hodgson A , George RA , Hoskins RA , Laverty T , Muzny DM , Nelson CR , Pacleb JM , Park S , Pfeiffer BD , Richards S , Sodergren EJ , Svirskas R , Tabor PE , Wan K , Stapleton M , Sutton GG , Venter C , Weinstock G , Scherer SE , Myers EW , Gibbs RA , Rubin GM
Ref : Genome Biol , 3 :RESEARCH0079 , 2002
Abstract : BACKGROUND: The Drosophila melanogaster genome was the first metazoan genome to have been sequenced by the whole-genome shotgun (WGS) method. Two issues relating to this achievement were widely debated in the genomics community: how correct is the sequence with respect to base-pair (bp) accuracy and frequency of assembly errors? And, how difficult is it to bring a WGS sequence to the accepted standard for finished sequence? We are now in a position to answer these questions.
RESULTS: Our finishing process was designed to close gaps, improve sequence quality and validate the assembly. Sequence traces derived from the WGS and draft sequencing of individual bacterial artificial chromosomes (BACs) were assembled into BAC-sized segments. These segments were brought to high quality, and then joined to constitute the sequence of each chromosome arm. Overall assembly was verified by comparison to a physical map of fingerprinted BAC clones. In the current version of the 116.9 Mb euchromatic genome, called Release 3, the six euchromatic chromosome arms are represented by 13 scaffolds with a total of 37 sequence gaps. We compared Release 3 to Release 2; in autosomal regions of unique sequence, the error rate of Release 2 was one in 20,000 bp.
CONCLUSIONS: The WGS strategy can efficiently produce a high-quality sequence of a metazoan genome while generating the reagents required for sequence finishing. However, the initial method of repeat assembly was flawed. The sequence we report here, Release 3, is a reliable resource for molecular genetic experimentation and computational analysis.
ESTHER : Celniker_2002_Genome.Biol_3_RESEARCH0079
PubMedSearch : Celniker_2002_Genome.Biol_3_RESEARCH0079
PubMedID: 12537568
Gene_locus related to this paper: drome-CG8058 , drome-CG9542 , drome-CG11309 , drome-CG11406 , drome-CG17097 , drome-CG17374 , drome-glita , drome-KRAKEN

Title : The transposable elements of the Drosophila melanogaster euchromatin: a genomics perspective - Kaminker_2002_Genome.Biol_3_RESEARCH0084
Author(s) : Kaminker JS , Bergman CM , Kronmiller B , Carlson J , Svirskas R , Patel S , Frise E , Wheeler DA , Lewis SE , Rubin GM , Ashburner M , Celniker SE
Ref : Genome Biol , 3 :RESEARCH0084 , 2002
Abstract : BACKGROUND: Transposable elements are found in the genomes of nearly all eukaryotes. The recent completion of the Release 3 euchromatic genomic sequence of Drosophila melanogaster by the Berkeley Drosophila Genome Project has provided precise sequence for the repetitive elements in the Drosophila euchromatin. We have used this genomic sequence to describe the euchromatic transposable elements in the sequenced strain of this species.
RESULTS: We identified 85 known and eight novel families of transposable element varying in copy number from one to 146. A total of 1,572 full and partial transposable elements were identified, comprising 3.86% of the sequence. More than two-thirds of the transposable elements are partial. The density of transposable elements increases an average of 4.7 times in the centromere-proximal regions of each of the major chromosome arms. We found that transposable elements are preferentially found outside genes; only 436 of 1,572 transposable elements are contained within the 61.4 Mb of sequence that is annotated as being transcribed. A large proportion of transposable elements is found nested within other elements of the same or different classes. Lastly, an analysis of structural variation from different families reveals distinct patterns of deletion for elements belonging to different classes.
CONCLUSIONS: This analysis represents an initial characterization of the transposable elements in the Release 3 euchromatic genomic sequence of D. melanogaster for which comparison to the transposable elements of other organisms can begin to be made. These data have been made available on the Berkeley Drosophila Genome Project website for future analyses.
ESTHER : Kaminker_2002_Genome.Biol_3_RESEARCH0084
PubMedSearch : Kaminker_2002_Genome.Biol_3_RESEARCH0084
PubMedID: 12537573
Gene_locus related to this paper: drome-CG8058 , drome-CG9542 , drome-CG11309 , drome-CG11406 , drome-CG17097 , drome-glita , drome-KRAKEN