Zuccolo A

References (5)

Title : The high-quality draft genome of peach (Prunus persica) identifies unique patterns of genetic diversity, domestication and genome evolution - Verde_2013_Nat.Genet_45_487
Author(s) : Verde I , Abbott AG , Scalabrin S , Jung S , Shu S , Marroni F , Zhebentyayeva T , Dettori MT , Grimwood J , Cattonaro F , Zuccolo A , Rossini L , Jenkins J , Vendramin E , Meisel LA , Decroocq V , Sosinski B , Prochnik S , Mitros T , Policriti A , Cipriani G , Dondini L , Ficklin S , Goodstein DM , Xuan P , Del Fabbro C , Aramini V , Copetti D , Gonzalez S , Horner DS , Falchi R , Lucas S , Mica E , Maldonado J , Lazzari B , Bielenberg D , Pirona R , Miculan M , Barakat A , Testolin R , Stella A , Tartarini S , Tonutti P , Arus P , Orellana A , Wells C , Main D , Vizzotto G , Silva H , Salamini F , Schmutz J , Morgante M , Rokhsar DS
Ref : Nat Genet , 45 :487 , 2013
Abstract : Rosaceae is the most important fruit-producing clade, and its key commercially relevant genera (Fragaria, Rosa, Rubus and Prunus) show broadly diverse growth habits, fruit types and compact diploid genomes. Peach, a diploid Prunus species, is one of the best genetically characterized deciduous trees. Here we describe the high-quality genome sequence of peach obtained from a completely homozygous genotype. We obtained a complete chromosome-scale assembly using Sanger whole-genome shotgun methods. We predicted 27,852 protein-coding genes, as well as noncoding RNAs. We investigated the path of peach domestication through whole-genome resequencing of 14 Prunus accessions. The analyses suggest major genetic bottlenecks that have substantially shaped peach genome diversity. Furthermore, comparative analyses showed that peach has not undergone recent whole-genome duplication, and even though the ancestral triplicated blocks in peach are fragmentary compared to those in grape, all seven paleosets of paralogs from the putative paleoancestor are detectable.
ESTHER : Verde_2013_Nat.Genet_45_487
PubMedSearch : Verde_2013_Nat.Genet_45_487
PubMedID: 23525075
Gene_locus related to this paper: prupe-a0a251pfr7 , prupe-a0a251r634 , prupe-m5x0p5 , prupe-m5xkg4 , prupe-m5x0q4 , prupe-m5vqa7 , prupe-m5wiw5 , prupe-a0a0u2wu32 , prupe-a0a251mtk1 , prupe-m5vl29 , prupe-m5vn82 , prupe-m5vq88 , prupe-m5y2s7 , prupe-m5wye7 , prupe-m5wxm4 , prupe-m5xqp6 , prupe-m5x4q4 , prupe-m5x4m1 , prupe-m5x6b3 , prupe-m5vlb6 , prupe-m5w4h3 , prupe-m5vlu4 , prupe-m5vln3 , prupe-a0a251myy7 , prupe-a0a251mws4 , prupe-m5vi18 , prupe-m5vh66 , prupe-m5xd54 , prupe-m5xqn2 , prupe-m5xr64 , prupe-m5vrm7 , prupe-m5vrk6 , prupe-m5vqp6 , prupe-a0a251nbb1 , prupe-a0a251nbd3 , prupe-a0a251nbb3 , prupe-a0a251nba0 , prupe-a0a251ndd4 , prupe-a0a251nbb6 , prupe-m5w315 , prupe-a0a251mwh1 , prupe-a0a251qn57 , prupe-m5vzh8 , prupe-m5xpz7 , prupe-m5xrp5 , prupe-m5wsr5 , prupe-m5xs20 , prupe-m5vl10 , prupe-a0a251nay9 , prupe-a0a251ndz1 , prupe-a0a251puf0 , prupe-m5wr61 , prupe-a0a251nyu6 , prupe-m5vl63

Title : Complete genome sequence of Campylobacter jejuni strain S3 - Cooper_2011_J.Bacteriol_193_1491
Author(s) : Cooper KK , Cooper MA , Zuccolo A , Law B , Joens LA
Ref : Journal of Bacteriology , 193 :1491 , 2011
Abstract : Campylobacter jejuni is one of the leading causes of bacterial gastroenteritis in the world; however, there is only one complete genome sequence of a poultry strain to date. Here we report the complete genome sequence and annotation of the second poultry strain, C. jejuni strain S3. This strain has been shown to be nonmotile, to be a poor invader in vitro, and to be a poor colonizer of poultry after minimal in vitro passage.
ESTHER : Cooper_2011_J.Bacteriol_193_1491
PubMedSearch : Cooper_2011_J.Bacteriol_193_1491
PubMedID: 21217004
Gene_locus related to this paper: camco-q4hhu5 , camjr-q5ht69

Title : The B73 maize genome: complexity, diversity, and dynamics - Schnable_2009_Science_326_1112
Author(s) : Schnable PS , Ware D , Fulton RS , Stein JC , Wei F , Pasternak S , Liang C , Zhang J , Fulton L , Graves TA , Minx P , Reily AD , Courtney L , Kruchowski SS , Tomlinson C , Strong C , Delehaunty K , Fronick C , Courtney B , Rock SM , Belter E , Du F , Kim K , Abbott RM , Cotton M , Levy A , Marchetto P , Ochoa K , Jackson SM , Gillam B , Chen W , Yan L , Higginbotham J , Cardenas M , Waligorski J , Applebaum E , Phelps L , Falcone J , Kanchi K , Thane T , Scimone A , Thane N , Henke J , Wang T , Ruppert J , Shah N , Rotter K , Hodges J , Ingenthron E , Cordes M , Kohlberg S , Sgro J , Delgado B , Mead K , Chinwalla A , Leonard S , Crouse K , Collura K , Kudrna D , Currie J , He R , Angelova A , Rajasekar S , Mueller T , Lomeli R , Scara G , Ko A , Delaney K , Wissotski M , Lopez G , Campos D , Braidotti M , Ashley E , Golser W , Kim H , Lee S , Lin J , Dujmic Z , Kim W , Talag J , Zuccolo A , Fan C , Sebastian A , Kramer M , Spiegel L , Nascimento L , Zutavern T , Miller B , Ambroise C , Muller S , Spooner W , Narechania A , Ren L , Wei S , Kumari S , Faga B , Levy MJ , McMahan L , Van Buren P , Vaughn MW , Ying K , Yeh CT , Emrich SJ , Jia Y , Kalyanaraman A , Hsia AP , Barbazuk WB , Baucom RS , Brutnell TP , Carpita NC , Chaparro C , Chia JM , Deragon JM , Estill JC , Fu Y , Jeddeloh JA , Han Y , Lee H , Li P , Lisch DR , Liu S , Liu Z , Nagel DH , McCann MC , SanMiguel P , Myers AM , Nettleton D , Nguyen J , Penning BW , Ponnala L , Schneider KL , Schwartz DC , Sharma A , Soderlund C , Springer NM , Sun Q , Wang H , Waterman M , Westerman R , Wolfgruber TK , Yang L , Yu Y , Zhang L , Zhou S , Zhu Q , Bennetzen JL , Dawe RK , Jiang J , Jiang N , Presting GG , Wessler SR , Aluru S , Martienssen RA , Clifton SW , McCombie WR , Wing RA , Wilson RK
Ref : Science , 326 :1112 , 2009
Abstract : We report an improved draft nucleotide sequence of the 2.3-gigabase genome of maize, an important crop plant and model for biological research. Over 32,000 genes were predicted, of which 99.8% were placed on reference chromosomes. Nearly 85% of the genome is composed of hundreds of families of transposable elements, dispersed nonuniformly across the genome. These were responsible for the capture and amplification of numerous gene fragments and affect the composition, sizes, and positions of centromeres. We also report on the correlation of methylation-poor regions with Mu transposon insertions and recombination, and copy number variants with insertions and/or deletions, as well as how uneven gene losses between duplicated regions were involved in returning an ancient allotetraploid to a genetically diploid state. These analyses inform and set the stage for further investigations to improve our understanding of the domestication and agricultural improvements of maize.
ESTHER : Schnable_2009_Science_326_1112
PubMedSearch : Schnable_2009_Science_326_1112
PubMedID: 19965430
Gene_locus related to this paper: maize-b4ffc7 , maize-b6u7e1 , maize-c0pcy5 , maize-c0pgf7 , maize-c0pgw1 , maize-c0pfl3 , maize-b4fpr7 , maize-k7vy73 , maize-a0a096swr3 , maize-k7v3i9 , maize-b6u9v9 , maize-a0a3l6e780 , maize-b4fv80 , maize-a0a1d6nse2 , maize-c4j9a1 , maize-k7uba1

Title : Dynamic evolution of oryza genomes is revealed by comparative genomic analysis of a genus-wide vertical data set - Ammiraju_2008_Plant.Cell_20_3191
Author(s) : Ammiraju JS , Lu F , Sanyal A , Yu Y , Song X , Jiang N , Pontaroli AC , Rambo T , Currie J , Collura K , Talag J , Fan C , Goicoechea JL , Zuccolo A , Chen J , Bennetzen JL , Chen M , Jackson S , Wing RA
Ref : Plant Cell , 20 :3191 , 2008
Abstract : Oryza (23 species; 10 genome types) contains the world's most important food crop - rice. Although the rice genome serves as an essential tool for biological research, little is known about the evolution of the other Oryza genome types. They contain a historical record of genomic changes that led to diversification of this genus around the world as well as an untapped reservoir of agriculturally important traits. To investigate the evolution of the collective Oryza genome, we sequenced and compared nine orthologous genomic regions encompassing the Adh1-Adh2 genes (from six diploid genome types) with the rice reference sequence. Our analysis revealed the architectural complexities and dynamic evolution of this region that have occurred over the past approximately 15 million years. Of the 46 intact genes and four pseudogenes in the japonica genome, 38 (76%) fell into eight multigene families. Analysis of the evolutionary history of each family revealed independent and lineage-specific gain and loss of gene family members as frequent causes of synteny disruption. Transposable elements were shown to mediate massive replacement of intergenic space (>95%), gene disruption, and gene/gene fragment movement. Three cases of long-range structural variation (inversions/deletions) spanning several hundred kilobases were identified that contributed significantly to genome diversification.
ESTHER : Ammiraju_2008_Plant.Cell_20_3191
PubMedSearch : Ammiraju_2008_Plant.Cell_20_3191
PubMedID: 19098269

Title : The Rice Annotation Project Database (RAP-DB): 2008 update - Tanaka_2008_Nucleic.Acids.Res_36_D1028
Author(s) : Tanaka T , Antonio BA , Kikuchi S , Matsumoto T , Nagamura Y , Numa H , Sakai H , Wu J , Itoh T , Sasaki T , Aono R , Fujii Y , Habara T , Harada E , Kanno M , Kawahara Y , Kawashima H , Kubooka H , Matsuya A , Nakaoka H , Saichi N , Sanbonmatsu R , Sato Y , Shinso Y , Suzuki M , Takeda J , Tanino M , Todokoro F , Yamaguchi K , Yamamoto N , Yamasaki C , Imanishi T , Okido T , Tada M , Ikeo K , Tateno Y , Gojobori T , Lin YC , Wei FJ , Hsing YI , Zhao Q , Han B , Kramer MR , McCombie RW , Lonsdale D , O'Donovan CC , Whitfield EJ , Apweiler R , Koyanagi KO , Khurana JP , Raghuvanshi S , Singh NK , Tyagi AK , Haberer G , Fujisawa M , Hosokawa S , Ito Y , Ikawa H , Shibata M , Yamamoto M , Bruskiewich RM , Hoen DR , Bureau TE , Namiki N , Ohyanagi H , Sakai Y , Nobushima S , Sakata K , Barrero RA , Souvorov A , Smith-White B , Tatusova T , An S , An G , S OO , Fuks G , Messing J , Christie KR , Lieberherr D , Kim H , Zuccolo A , Wing RA , Nobuta K , Green PJ , Lu C , Meyers BC , Chaparro C , Piegu B , Panaud O , Echeverria M
Ref : Nucleic Acids Research , 36 :D1028 , 2008
Abstract : The Rice Annotation Project Database (RAP-DB) was created to provide the genome sequence assembly of the International Rice Genome Sequencing Project (IRGSP), manually curated annotation of the sequence, and other genomics information that could be useful for comprehensive understanding of the rice biology. Since the last publication of the RAP-DB, the IRGSP genome has been revised and reassembled. In addition, a large number of rice-expressed sequence tags have been released, and functional genomics resources have been produced worldwide. Thus, we have thoroughly updated our genome annotation by manual curation of all the functional descriptions of rice genes. The latest version of the RAP-DB contains a variety of annotation data as follows: clone positions, structures and functions of 31 439 genes validated by cDNAs, RNA genes detected by massively parallel signature sequencing (MPSS) technology and sequence similarity, flanking sequences of mutant lines, transposable elements, etc. Other annotation data such as Gnomon can be displayed along with those of RAP for comparison. We have also developed a new keyword search system to allow the user to access useful information. The RAP-DB is available at: http://rapdb.dna.affrc.go.jp/ and http://rapdb.lab.nig.ac.jp/.
ESTHER : Tanaka_2008_Nucleic.Acids.Res_36_D1028
PubMedSearch : Tanaka_2008_Nucleic.Acids.Res_36_D1028
PubMedID: 18089549
Gene_locus related to this paper: orysa-Q9FW17 , orysa-Q0JK71 , orysa-B9EWJ8 , orysa-Q5N7L1 , orysa-pir7a , orysa-q2qyj1 , orysj-q6yse8 , orysa-q6yzk1 , orysa-Q8S0U8 , orysa-q33aq0 , orysa-Q0J0A4 , orysi-a2z179 , orysi-a2zef2 , orysi-b8a7e6 , orysi-b8a7e7 , orysi-b8bfe5 , orysi-b8bhp9 , orysj-b9fi05 , orysj-b9fkb0 , orysj-cgep , orysj-q0djj0 , orysj-q0dud7 , orysj-q0jaf0 , orysj-q0jga1 , orysj-q5jl22 , orysj-q5jlw7 , orysj-q6h7q9 , orysj-q6yvk6 , orysj-q7f8x1 , orysj-q7xcx3 , orysj-q9fwm6 , orysj-q10j20 , orysj-q10ss2 , orysj-q69uw6 , orysj-q94d71 , orysj-q0iq98 , orysj-b9gbs4 , orysj-b9gbs1 , orysj-pla4 , orysj-pla1