The first draft of the pigeonpea genome sequence

被引:0
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作者
Nagendra K. Singh
Deepak K. Gupta
Pawan K. Jayaswal
Ajay K. Mahato
Sutapa Dutta
Sangeeta Singh
Shefali Bhutani
Vivek Dogra
Bikram P. Singh
Giriraj Kumawat
Jitendra K. Pal
Awadhesh Pandit
Archana Singh
Hukum Rawal
Akhilesh Kumar
G. Rama Prashat
Ambika Khare
Rekha Yadav
Ranjit S. Raje
Mahendra N. Singh
Subhojit Datta
Bashasab Fakrudin
Keshav B. Wanjari
Rekha Kansal
Prasanta K. Dash
Pradeep K. Jain
Ramcharan Bhattacharya
Kishor Gaikwad
Trilochan Mohapatra
R. Srinivasan
Tilak R. Sharma
机构
[1] Indian Agricultural Research Institute,National Research Centre on Plant Biotechnology
[2] Indian Agricultural Research Institute,Division of Genetics
[3] Banaras Hindu University,Institute of Agricultural Sciences
[4] Indian Institute of Pulses Research,undefined
[5] University of Agricultural Sciences,undefined
[6] Panjabrao Deshmukh Krishi Vidyapeeth,undefined
来源
Journal of Plant Biochemistry and Biotechnology | 2012年 / 21卷
关键词
Pigeonpea; Genome sequence; Disease resistance; SSR markers; Legumes;
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学科分类号
摘要
Pigeonpea (Cajanus cajan) is an important grain legume of the Indian subcontinent, South-East Asia and East Africa. More than eighty five percent of the world pigeonpea is produced and consumed in India where it is a key crop for food and nutritional security of the people. Here we present the first draft of the genome sequence of a popular pigeonpea variety ‘Asha’. The genome was assembled using long sequence reads of 454 GS-FLX sequencing chemistry with mean read lengths of >550 bp and >10-fold genome coverage, resulting in 510,809,477 bp of high quality sequence. Total 47,004 protein coding genes and 12,511 transposable elements related genes were predicted. We identified 1,213 disease resistance/defense response genes and 152 abiotic stress tolerance genes in the pigeonpea genome that make it a hardy crop. In comparison to soybean, pigeonpea has relatively fewer number of genes for lipid biosynthesis and larger number of genes for cellulose synthesis. The sequence contigs were arranged in to 59,681 scaffolds, which were anchored to eleven chromosomes of pigeonpea with 347 genic-SNP markers of an intra-species reference genetic map. Eleven pigeonpea chromosomes showed low but significant synteny with the twenty chromosomes of soybean. The genome sequence was used to identify large number of hypervariable ‘Arhar’ simple sequence repeat (HASSR) markers, 437 of which were experimentally validated for PCR amplification and high rate of polymorphism among pigeonpea varieties. These markers will be useful for fingerprinting and diversity analysis of pigeonpea germplasm and molecular breeding applications. This is the first plant genome sequence completed entirely through a network of Indian institutions led by the Indian Council of Agricultural Research and provides a valuable resource for the pigeonpea variety improvement.
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页码:98 / 112
页数:14
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