The tomato genome sequence provides insights into fleshy fruit evolution

Shusei Sato,S. Tabata,H. Hirakawa,E. Asamizu,K. Shirasawa,S. Isobe,T. Kaneko,Yasukazu Nakamura,D. Shibata,K. Aoki,M. Egholm,James R. Knight,R. Bogden,Changbao Li,Yang Shuang,Xun Xu,S. Pan,Shifeng Cheng,Xin Liu,Yuanyuan Ren,Jun Wang,A. Albiero,F. Pero,S. Todesco,J. Eck,Robert M. Buels,A. Bombarely,J. Gosselin,Minyun Huang,J. Leto,Naama Menda,S. Strickler,Linyong Mao,Shan Gao,I. Tecle,T. York,Yi Zheng,J. Vrebalov,Je Min Lee,S. Zhong,L. Mueller,W. Stiekema,Paolo Ribeca,T. Alioto,Wencai Yang,Sanwen Huang,Yong-chen Du,Zhonghua Zhang,Jianchang Gao,Yanmei Guo,Xiaoxuan Wang,Ying Li,Jun He,Chuanyou Li,Zhukuan Cheng,Jianru Zuo,Jianfeng Ren,Jiuhai Zhao,Liuhua Yan,Hongling Jiang,Baoliang Wang,Hongshuang Li,Zhen-jun Li,F. Fu,Bingtang Chen,B. Han,Qi Feng,Danlin Fan,Ying Wang,H. Ling,Yongbiao Xue,D. Ware,W. McCombie,Z. Lippman,Jer-Ming Chia,K. Jiang,S. Pasternak,Laura Gelley,M. Kramer,L. Anderson,Song-Bin Chang,S. Royer,L. Shearer,S. Stack,J. Rose,Yimin Xu,N. T. Eannetta,A. Matas,R. McQuinn,S. Tanksley,F. Camara,R. Guigó,S. Rombauts,Jeffrey A. Fawcett,Y. Peer,D. Zamir,Chunbo Liang,M. Spannagl,H. Gundlach,R. Bruggmann,K. Mayer,Zhiqi Jia,Junhong Zhang,Z. Ye,G. Bishop,S. Butcher,Rosa M Lopez-Cobollo,Daniel W. A. Buchan,Ioannis Filippis,J. Abbott,Rekha Dixit,Manju Singh,Archana Singh,J. K. Pal,A. Pandit,Pradeep K. Singh,A. Mahato,V. Dogra,K. Gaikwad,T. Sharma,T. Mohapatra,N. Singh,M. Causse,C. Rothan,T. Schiex,Céline Noirot,A. Bellec,C. Klopp,C. Delalande,H. Bergès,J. Mariette,P. Frasse,S. Vautrin,M. Zouine,A. Latché,C. Rousseau,F. Regad,J. Pech,Murielle Philippot,M. Bouzayen,Pierre Pericard,Sonia Osorio,A. F. D. Carmen,A. Monforte,A. Granell,R. Fernández-Muñoz,Mariana Conte,G. Lichtenstein,F. Carrari,G. Bellis,F. Fuligni,C. Peano,S. Grandillo,P. Termolino,M. Pietrella,Elio Fantini,G. Falcone,A. Fiore,G. Giuliano,L. Lopez,Paolo Facella,G. Perrotta,Loretta Daddiego,G. Bryan,M. Orozco,X. Pastor,D. Torrents,Keygene N. V. Marco G. M. van Schriek,R. Feron,Jan van Oeveren,P. Heer,Lorena daPonte,Saskia Jacobs-Oomen,M. Cariaso,M. Prins,M. V. Eijk,A. Janssen,M. Haaren,Sung-Hwan Jo,Jungeun Kim,Suk-Yoon. Kwon,Sangmi Kim,D. Koo,Sanghyeob Lee,Cheol-Goo Hur,Chris Clouser,A. Rico,A. Hallab,C. Gebhardt,K. Klee,Anika Joecker,J. Warfsmann,U. Goebel,S. Kawamura,K. Yano,J. Sherman,H. Fukuoka,Satomi Negoro,Sarita Bhutty,Parul Chowdhury,D. Chattopadhyay,E. Datema,S. Smit,E. Schijlen,J. Belt,J. V. Haarst,S. Peters,M. V. Staveren,M. Henkens,P. Mooyman,T. Hesselink,R. V. Ham,Guoyong Jiang,M. Droege,D. Choi,B. Kang,Byung-Dong Kim,Minkyu Park,Seungill Kim,Seon-In Yeom,Yong-Hwan Lee,Y. Choi,Guangcun Li,Jianwei Gao,Yongsheng Liu,Shengxiong Huang,V. Fernández-Pedrosa,Carmen Collado,Sheila Zúñiga,Guoping Wang,R. Cade,R. Dietrich,J. Rogers,S. Knapp,Z. Fei,Ruth White,T. Thannhauser,J. Giovannoni,M. Botella,Louise Gilbert,R. Gonzalez,J. Goicoechea,Yeisoo Yu,D. Kudrna,K. Collura,Marina Wissotski,R. Wing,H. Schoof,B. Meyers,Aishwarya Bala Gurazada,P. Green,S. Mathur,S. Vyas,A. Solanke,Rahul Kumar,Vikrant Gupta,A. Sharma,P. Khurana,J. Khurana,A. Tyagi,T. Dalmay,I. Mohorianu,Brandon Walts,S. Chamala,W. B. Barbazuk,Jingping Li,Hui Guo,Tae-Ho Lee,Yupeng Wang,Dong Zhang,A. Paterson,Xiyin Wang,Haibao Tang,A. Barone,M. Chiusano,M. Ercolano,N. D’Agostino,M. D. Filippo,Alessandra Traini,W. Sanseverino,L. Frusciante,G. Seymour,Mounir Elharam,Ying Fu,A. Hua,S. Kenton,J. Lewis,S. Lin,F. Najar,H. Lai,B. Qin,Chunmei Qu,Ruihua Shi,Doug White,James R. White,Yanbo Xing,Keqin Yang,Jing Yi,Ziyun Yao,Liping Zhou,B. Roe,A. Vezzi,M. Dangelo,R. Zimbello,Riccardo Schiavon,E. Caniato,Chiara Rigobello,D. Campagna,N. Vitulo,G. Valle,D. Nelson,E. Paoli,D. Szinay,H. Jong,Yuling Bai,R. Visser,R. K. Lankhorst,H. Beasley,K. McLaren,C. Nicholson,C. Riddle,Giulio Gianese

Published 2012 in Nature

ABSTRACT

Tomato (Solanum lycopersicum) is a major crop plant and a model system for fruit development. Solanum is one of the largest angiosperm genera and includes annual and perennial plants from diverse habitats. Here we present a high-quality genome sequence of domesticated tomato, a draft sequence of its closest wild relative, Solanum pimpinellifolium, and compare them to each other and to the potato genome (Solanum tuberosum). The two tomato genomes show only 0.6% nucleotide divergence and signs of recent admixture, but show more than 8% divergence from potato, with nine large and several smaller inversions. In contrast to Arabidopsis, but similar to soybean, tomato and potato small RNAs map predominantly to gene-rich chromosomal regions, including gene promoters. The Solanum lineage has experienced two consecutive genome triplications: one that is ancient and shared with rosids, and a more recent one. These triplications set the stage for the neofunctionalization of genes controlling fruit characteristics, such as colour and fleshiness.

PUBLICATION RECORD

CITATION MAP

EXTRACTION MAP

CLAIMS

  • No claims are published for this paper.

CONCEPTS

  • No concepts are published for this paper.

REFERENCES

Showing 1-100 of 221 references · Page 1 of 3

CITED BY

Showing 1-100 of 3015 citing papers · Page 1 of 31