Application of mating type genes in molecular marker-assisted breeding of the edible straw mushroom Volvariella volvacea

文献类型: 外文期刊

第一作者: Wang, Hong

作者: Wang, Hong;Chen, Mingjie;Xue, Chengqin;Li, Zhengpeng;Bao, Dapeng;Wang, Hong;Chen, Mingjie;Xue, Chengqin;Li, Zhengpeng;Bao, Dapeng;Wang, Hong;Chen, Mingjie;Xue, Chengqin;Li, Zhengpeng;Bao, Dapeng;Xiong, Dengkun;Wang, Hong;Chen, Mingjie;Xue, Chengqin;Li, Zhengpeng;Bao, Dapeng;Xiong, Dengkun;Bian, Yinbing

作者机构:

关键词: Volvariella volvacea;Mating type gene;Molecular marker;Cross-breeding

期刊名称:SCIENTIA HORTICULTURAE ( 影响因子:3.463; 五年影响因子:3.672 )

ISSN:

年卷期:

页码:

收录情况: SCI

摘要: The mating types of 124 and 88 single spore isolates, isolated at random from Volvariella volvacea strains V23 (A mating type locus alleles A1 + A2) and PY (A mating type locus alleles A3 + A4) respectively, were determined by molecular screening using four primer pairs designed according to the sequences of the A mating type genes (HD1 and HD2) of the two parental strains. Of the single spore isolates from strain V23, 101were confirmed as homokaryons, 35 of which were mating type A1 and 66 mating type A2. The remaining 23 were heterokaryons carrying both A1 and A2 mating type lad. Of the single spore isolates from strain PY, 72 were confirmed as homokaryons, of which 41 were mating type A3 and 31 mating type A4. Sixteen were heterokaryons carrying both A3 and A4 mating type loci. Cross-breeding between 72 compatible pairs generated 58 hybrids, three of which were designated high quality hybrids based on agronomic traits determined by cultivation experiments. Our research has established that the molecular marker-assisted cross-breeding technique represents a practical and highly efficient system for generating improved V. volvacea cultivars. (C) 2014 Elsevier B.V. All rights reserved.

分类号: S6

  • 相关文献

[1]Several Low-Seeded Citrus Hybrids Selected from a Tangor x 'Ponkan' Cross. Chen, Ke-Ling,He, Jian,Guan, Bin.

[2]A specific type of cyclin-like F-box domain gene is involved in the cryogenic autolysis of Volvariella volvacea. Gong, Ming,Chen, Mingjie,Wang, Hong,Tan, Qi,Gong, Ming,Zhu, Qiuming.

[3]Cloning of multiple cellulase cDNAs from Volvariella volvacea and their differential expression during substrate colonization and fruiting. Ding, Shaojun,Ge, Wei,Buswell, John A..

[4]A newly discovered ubiquitin-conjugating enzyme E2 correlated with the cryogenic autolysis of Volvariella volvacea. Gong, Ming,Wang, Hong,Chen, Mingjie,Bao, Dapeng,Tan, Qi,Gong, Ming,Zhu, Qiuming.

[5]Improved fruiting of the straw mushroom (Volvariella volvacea) on cotton waste supplemented with sodium acetate. Hou, Lijuan,Li, Yu,Chen, Mingjie,Li, Zhengpeng. 2017

[6]Molecular cloning and transcriptional expression analysis of an intracellular beta-glucosidase, a family 3 glycosyl hydrolase, from the edible straw mushroom, Volvariella volvacea. Ding, Shaojun,Ge, Wei,Buswell, John A..

[7]Comparison of endoglucanase-1 (EG1) induction in the edible straw mushroom Volvariella volvacea by lactose and/or cellobiose with or without added sorbose. Zhang, Liang,Pei, Yun,Ding, Shaojun,Xing, Zengtao,Buswell, John A..

[8]Analysis of synonymous codon usage patterns in the edible fungus Volvariella volvacea. Jiang, Wei,Lv, Beibei,Wu, Xiao,Wang, Jinbin,Wu, Guogan,Tang, Xueming,Jiang, Wei,Lv, Beibei,Wu, Xiao,Wang, Jinbin,Wu, Guogan,Tang, Xueming,Shi, Chunhui.

[9]Molecular Cloning, Sequencing, and Expression of a l-Glutamine d-Fructose 6-Phosphate Amidotransferase Gene from Volvariella volvacea. Luo, Chuping,Chen, Zhiyi,Liu, Yongfeng,Luo, Chuping,Shao, Weilan,Li, Xun,Li, Xun. 2009

[10]A new approach for breeding low-temperature-resistant Volvariella volvacea strains: Genome shuffling in edible fungi. Zhu, Ziping,Wu, Xiao,Lv, Beibei,Wu, Guogan,Wang, Jinbin,Jiang, Wei,Li, Peng,He, Jianhua,Chen, Jianzhong,Tang, Xueming,Zhu, Ziping,Wu, Xiao,Lv, Beibei,Wu, Guogan,Wang, Jinbin,Jiang, Wei,Li, Peng,He, Jianhua,Chen, Jianzhong,Tang, Xueming,Chen, Mingjie,Bao, Dapeng,Zhang, Jinsong,Tan, Qi.

[11]Overcoming obstacles to interspecific hybridization between Gossypium hirsutum and G. turneri. Chen, Yu,Chen, Yu,Feng, Shouli,Zhao, Ting,Zhou, Baoliang. 2018

[12]Peanut (Arachis hypogaea L.) Omics and Biotechnology in China. Wang, Xing-Jun,Xia, Han,Wan, Shu-Bo,Zhao, Chuan-Zhi,Li, Ai-Qin,Wang, Xing-Jun,Xia, Han,Wan, Shu-Bo,Zhao, Chuan-Zhi,Li, Ai-Qin,Wang, Xing-Jun,Xia, Han,Wan, Shu-Bo,Zhao, Chuan-Zhi,Li, Ai-Qin,Liu, Shuan-Tao. 2011

[13]Screening for the molecular marker linked to saucer gene of peach fruit shape. Guo, J,Jiang, Q,Zhang, K,Zhao, J,Yang, Y. 2002

[14]Analysis of genetic relationships of mulberry (Morus L.) germplasm using sequence-related amplified polymorphism (SRAP) markers. Zhao, Weiguo,Chung, Il-Min,Zhao, Weiguo,Fang, Rongjun,Pan, Yile,Yang, Yonghua,Chung, Jong-Wook,Park, Yong-Jin. 2009

[15]Genetic analysis and mapping of rice (Oryza sativa L.) male-sterile (OsMS-L) mutant. Liu, HS,Chu, HW,Li, H,Wang, HM,Wei, JL,Li, N,Ding, SY,Huang, H,Ma, H,Huang, CF,Luo, D,Yuang, Z,Liu, JH,Zhang, DB. 2005

[16]Isolation of a new repetitive DNA sequence from Secale africanum enables targeting of Secale chromatin in wheat background. Yang, Zu-Jun,Li, Guang-Rong,Zeng, Zi-Xian,Zhang, Yong,Zhou, Jian-Ping,Liu, Zhao-Hui,Ren, Zheng-Long. 2008

[17]Gene Discovery in Triticum dicoccoides, the Direct Progenitor of Cultivated Wheats. Sun, D. F.,Peng, Y. L.,Nevo, E.,Peng, J. H.. 2013

[18]Establishment and Application of Ty-2 Molecular Marker in Tomatoes. Yang, Ruixing,Li, Haitao,Lv, Shuwen,Li, Haitao,Chai, Min. 2012

[19]Mapping of a wheat resistance gene to yellow mosaic disease by amplified fragment length polymorphism and simple sequence repeat markers. Nie, H,He, ZT,Chen, XL,Han, YP,Wang, JR,Li, X,Han, CG,Yu, JL. 2005

[20]Genetic Diversity Revealed by Single Nucleotide Polymorphism Markers in a Worldwide Germplasm Collection of Durum Wheat. Sun, Daokun,Chen, Liang,Peng, Junhua,Ren, Jing,You, Frank M.,Wang, Jirui,Luo, Ming-Cheng,You, Frank M.,Peng, Yunliang,Nevo, Eviatar,Sun, Dongfa,Peng, Junhua. 2013

作者其他论文 更多>>