黑龙江省农业科学院机构知识库

Identification of QTL underlying soybean agglutinin content in soybean seeds and analysis for epistatic effects among multiple genetic backgrounds and environments

收藏
分享
全文链接

文献类型：外文期刊

作者： Yang, M. -L. ¹ ; Ding, J. -J. ² ; Li, H. -Y. ¹ ; Sui, M. -N. ¹ ; Wang, J. -A. ¹ ;

作者机构： 1.Northeast Agr Univ, Chinese Agr Minist, Chinese Minist Educ, Key Lab Soybean Biol,Key Lab Soybean Biol & Breed, Harbin 150030, Heilongjiang, Peoples R China

2.Heilongjiang Acad Agr Sci, Jiamusi Branch, Jiamusi 154000, Peoples R China

关键词： soybean;soybean agglutinin content;quantitative trait locus (QTL);epistatic effect;multiple genetic backgrounds and environments

期刊名称：CANADIAN JOURNAL OF PLANT SCIENCE （影响因子：1.018；五年影响因子：1.242 ）

ISSN： 0008-4220

年卷期： 2017 年 97 卷 4 期

页码：

收录情况： SCI

摘要： Soybean agglutinin (SBA), a major anti-nutritional factor in soybeans, seriously affects the safety of and effects on feed animals. Soybean varieties with lower SBA contents could play a positive role in the promotion of the fodder industry. In the present study, one male parent, Hefeng 45, was used in three recombinant I bred line (RIL) populations to detect quantitative trait loci (QTL) associated with SBA content across three different environments. As a result, a total of six, six, and four QTL related to SBA content were identified in the groups Hefeng 45 x Zhongdou 27 (HZ), Hefeng 45 x Dongnong 48 (HD), and Hefeng 45 x Taipingchuan Blacksoy (HT), respectively. Most of the QTL underlying SBA explained less than 10% of the phenotypic variation, but some major QTL with higher additive effects have stable expressions across different environments and RIL populations. On the contrary, many QTL dependent on the environment or RIL populations showed mainly weak effects, and gene x environment interaction occurred in the opposite direction to additive effects and (or) epistasis effects. Two (SbaHZC1-1 and SbaHZD1b-1, linked to Satt139 and Satt189, respectively) and one (SbaHDD1a-1, linked to Satt402) QTL for SBA were identified in HZ and HD populations, respectively, across three environments. Those QTL (Satt139 and Satt189) might have potential in the application of marker-assisted selection for low agglutinin content soybean.

相关文献

[1]QTL mapping for flowering time in different latitude in soybean. Lu, Sijia,Wang, Jialin,Nan, Haiyang,Cao, Dong,Li, Xiaoming,Fang, Chao,Shi, Xinyi,Yuan, Xiaohui,Feng, Xianzhong,Liu, Baohui,Kong, Fanjiang,Lu, Sijia,Li, Xiaoming,Fang, Chao,Shi, Xinyi,Li, Ying,Srinives, Peerasak,Wang, Yanping,Li, Jinliang,Watanabe, Satoshi,Abe, Jun.

[2]Cloning and Analyzing of Disease Resistance Gene Analogs from Soybean. LIU Jie,LIU Li-jun,WU Jun-jiang,CHEN Yi-li,LI Kang,ZHANG Cheng-liang. 2005

[3]Cloning and Analyzing of Disease Resistance Gene Analogs from Soybean. LIU Jie,LIU Li-jun,WU Jun-jiang,CHEN Yi-li,LI Kang,ZHANG Cheng-liang,中国科学院文献情报中心; 中国生物技术发展中心; 中国生物工程学会;. 2005

[4]Geographical distribution of GmTfl1 alleles in Chinese soybean varieties. Liu, Guifeng,Zhao, Lin,Qiu, Lijuan,Liu, Ying,Chang, Ruzhen,Guan, Rongxia,Qiu, Lijuan,Averitt, Benjamin J.,Zhang, Bo,Ma, Yansong,Luan, Xiaoyan. 2015

[5]Stability of growth periods traits for soybean cultivars across multiple locations. Liu Zhang-xiong,Chang Ru-zhen,Qiu Li-juan,Wang Xiao-bo,Yang Chun-yan,Xu Ran,Zhang Li-feng,Lu Wei-guo,Wang Qian,Wei Su-hong,Yang Chun-ming,Wang Hui-cai,Wang Rui-zhen,Zhou Rong,Chen Huai-zhu. 2016

[6]Flavor characteristic analysis of soymilk prepared by different soybean cultivars and establishment of evaluation method of soybean cultivars suitable for soymilk processing. Shi Xiaodi,Li Jingyan,Guo Shuntang,Wang Shuming,Zhang Lei,Qiu Lijuan,Han Tianfu,Wang Qianyu,Chang Sam Kow-Ching.

[7]QTL effects and epistatic interaction for flowering time and branch number in a soybean mapping population of JapanesexChinese cultivars. Yang Guang,Xie Fu-ti,Zhai Hong,Wu Hong-yan,Zhang Xing-zheng,Wang Ya-ying,Li Yu-qiu,Hu Bo,Wang Lu,Xia Zheng-jun,Zhang Xing-zheng,Wang Ya-ying,Li Yu-qiu,Wang Lu,Yang Guang,Lu Shi-xiang,Wen Zi-xiang,Wang De-chun,Wang Shao-dong,Harada, Kyuya. 2017

[8]GmFW1 expression decreased in GmSymRK knockdown transgenic soybean roots. Wang, Lijun,Deng, Lingwei,Jiao, Yongqing.

[9]The relation between C-4 pathway enzymes and PSII photochemical function in soybean. Li, WH,Lu, QT,Hao, NB,Ge, QY,Zhang, QD,Jiang, GM,Du, WG,Kuang, TY. 2000

[10]MICROBIAL ACTIVITY AND COMMUNITY DIVERSITY IN TOBACCO RHIZOSPHERIC SOIL AFFECTED BY DIFFERENT PRE-CROPS. Li, X.,Zhang, X.,Yue, B.,Sun, G.,Li, X.,Zhang, H.,He, G.,Xu, N.,Sun, M.,Zhao, Y.. 2017

[11]Pathogenicity of Pythium species causing seed rot and damping-off in soybean under controlled conditions. Xue, Allen G.,Cober, Elroy R.,Babcock, Carolyn,Zhang, Jinxiu,Wei, Lai,Zhang, Shuzhen,Li, Wenbin,Wu, Junjiang,Liu, Lijun. 2010

[12]Temporospatial Characterization of Nutritional and Bioactive Components of Soybean Cultivars in China. Wu, Tingting,Yao, Yang,Sun, Shi,Wang, Caijie,Song, Wenwen,Wu, Cunxiang,Jiang, Bingjun,Hou, Wensheng,Ren, Guixing,Han, Tianfu,Jia, Hongchang,Man, Weiqun,Fu, Lianshun.

[13]Differential expression of a WRKY gene between wild and cultivated soybeans correlates to seed size. Gu, Yongzhe,Wang, Yan,Gao, Huihui,He, Chaoying,Gu, Yongzhe,Gao, Huihui,He, Chaoying,Li, Wei,Liu, Miao,Lai, Yongcai,Jiang, Hongwei,Chen, Qingshan.

[14]Detecting SNPs underlying domestication-related traits in soybean. Li, Ying-Hui,Ma, Yan-Song,Chang, Ru-Zhen,Qiu, Li-Juan,Reif, Jochen C.,Jackson, Scott A.,Ma, Yan-Song. 2014

[15]Fine Mapping and Identification of a Novel Phytophthora Root Rot Resistance Locus RpsZS18 on Chromosome 2 in Soybean. Zhong, Chao,Sun, Suli,Duan, Canxing,Zhu, Zhendong,Yao, Liangliang,Ding, Junjie. 2018

[16]Genetic overlap of QTL associated with low-temperature tolerance at germination and seedling stage using BILs in soybean. Zhang, Wen-Bo,Jiang, Hong-wei,Liu, Chun-Yan,Hu, Guo-Hua,Zhang, Wen-Bo,Jiang, Hong-wei,Xin, Da-Wei,Chen, Qing-Shan,Hu, Guo-Hua,Li, Can-Dong,Zhang, Wen-Bo,Qiu, Peng-Cheng,Chen, Fei-Long. 2012

[17]QTL analysis of soybean oil content under 17 environments. Qi, Zhaoming,Hou, Meng,Xin, Dawei,Wang, Zhongyu,Zhu, Rongsheng,Hu, Zhenbang,Chen, Qingshan,Han, Xue,Jiang, Hongwei,Liu, Chunyan,Hu, Guohua,Li, Candong. 2014

[18]Ectopic expression of Arabidopsis thaliana Na+(K+)/H+ antiporter gene, AtNHX5, enhances soybean salt tolerance. Wu, X. X.,Li, J.,Wu, X. D.,Wang, Z. K.,Liu, S. S.,Li, S. N.,Ma, Y. L.,Zhao, L.,Li, H. Y.,Li, D. M.,Li, W. B.,Liu, Q.,Su, A. Y.,Sun, J.. 2016

[19]GmACP expression is decreased in GmNORK knockdown transgenic soybean roots. Wang, Lijun,Deng, Lingwei. 2016

[20]Construction and analysis of a suppression subtractive hybridization library of regeneration-related genes in soybean. Sun, J.,Li, J.,Liu, M.,Zhang, B. B.,Li, D. M.,Wang, M.,Zhang, C.,Li, W. B.,Wu, X. X.,Sun, J.,Su, A. Y.. 2015

Identification of QTL underlying soybean agglutinin content in soybean seeds and analysis for epistatic effects among multiple genetic backgrounds and environments

作者其他论文更多>>

意见箱

Identification of QTL underlying soybean agglutinin content in soybean seeds and analysis for epistatic effects among multiple genetic backgrounds and environments

作者其他论文 更多>>

意 见 箱

作者其他论文更多>>

意见箱