您好,欢迎访问黑龙江省农业科学院 机构知识库!

Structure of Allozymatic Diversity of Ten Temperate and Adapted Exotic Breeding Populations of Maize (Zea mays L.)

文献类型: 外文期刊

作者: Zheng Da-hao 1 ; Yu Yang 2 ; Wang Zhen-ping 3 ; Li Yan-ru 1 ;

作者机构: 1.Yanbian Univ, Coll Agr, Longjing 133400, Peoples R China

2.Heilongjiang Acad Agr Sci, Crop Tillage & Cultivat Inst, Harbin 150086, Peoples R China

3.Tonghua Acad Agr Sci, Meihekou 135000, Peoples R China

关键词: maize;breeding population;allozyme;diversity structure;multivariate analysis

期刊名称:AGRICULTURAL SCIENCES IN CHINA ( 影响因子:0.82; 五年影响因子:0.997 )

ISSN: 1671-2927

年卷期: 2009 年 8 卷 8 期

页码:

收录情况: SCI

摘要: Ten temperate and adapted exotic breeding populations of maize were studied with electrophoretic techniques. Three isozyme systems coded by nine allozyme loci were used for evaluating the genetic variability within and among populations. The results revealed that 78.57% of allozyme loci were polymorphic. Low allelic variation with a mean number of 1.84 alleles per locus per population was detected. But, these populations still maintained higher level of heterozygosity; moreover, the exotic populations had greater gene diversity than the temperate populations. All the populations were non-panmictic with negative Wright's fixation indexes (-0.091- -0.424). The tropical BS16 was typified by maximum allelic richness, percent of polymorphic loci and heterozygosity. More than 93% of the gene diversity maintained within populations, and the genetic differentiation among populations was low (0.002-0.191). Multivariate analysis demonstrated that the tropical BS29 diverged from other populations in the reverse direction. The temperate BS9 and tropical BS16 were divergent each other, and highly differentiated from other temperate and tropical populations, consequently, these two populations would be analogically postulated as potential germplasms to establish new heterotic groups for temperate maize breeding programs.

  • 相关文献

[1]Transcriptome Sequencing Identified Genes and Gene Ontologies Associated with Early Freezing Tolerance in Maize. Li, Zhao,Hu, Guanghui,Liu, Xiangfeng,Zhou, Yao,Zhang, Qian,Yang, Deguang,Zhang, Zhiwu,Li, Zhao,Hu, Guanghui,Zhang, Xu,Yuan, Xiaohui,Zhang, Zhiwu,Hu, Guanghui,Wang, Tianyu,Yuan, Xiaohui. 2016

[2]Light-regulated phosphorylation of maize phosphoenolpyruvate carboxykinase plays a vital role in its activity. Chao, Qing,Mei, Ying-Chang,Gao, Zhi-Fang,Chen, Yi-Bo,Wang, Bai-Chen,Liu, Xiao-Yu,Qian, Chun-Rong,Hao, Yu-Bo. 2014

[3]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

[4]Integrative analysis of DNA methylation, mRNAs, and small RNAs during maize embryo dedifferentiation. Liu, Hongjun,Ma, Langlang,Gao, Shibin,Lin, Haijian,Pan, Guangtang,Shen, Yaou,Liu, Hongjun,Yang, Xuerong,Zhang, Lin,Zeng, Xing,Xie, Shupeng,Peng, Huanwei,Wu, Yongrui. 2017

[5]Effect of Trait Heritability, Training Population Size and Marker Density on Genomic Prediction Accuracy Estimation in 22 bi-parental Tropical Maize Populations. Zhang, Ao,Liu, Yubo,Cui, Zhenhai,Ruan, Yanye,Yu, Haiqiu,Zhang, Ao,Wang, Hongwu,Liu, Yubo,Burgueno, Juan,San Vicente, Felix,Crossa, Jose,Zhang, Xuecai,Wang, Hongwu,Beyene, Yoseph,Semagn, Kassa,Olsen, Michael,Prasanna, Boddupalli M.,Cao, Shiliang,Semagn, Kassa. 2017

[6]Correlation Analysis of Yield and Photosynthetic Traits with Simple Repeat Sequence (SSR) Markers in Maize. Li, Weizhong,Zhao, Dongxu,Wei, Shi,Li, Jing,Li, Weizhong,Wang, Maoqing,Hu, Guohua,Liang, Chunbo. 2017

[7]Mycotoxin Contamination of Maize in China. Sun, Xiang Dong,Su, Ping,Shan, Hong,Sun, Xiang Dong,Su, Ping,Shan, Hong. 2017

[8]Quantitative Trait Locus Analysis for Deep-Sowing Germination Ability in the Maize IBM Syn10 DH Population. Liu, Hongjun,Zhang, Lin,Zeng, Xing,Wang, Jiechen,Li, Changsheng,Xie, Shupeng,Zhang, Yongzhong,Liu, Sisi,Hu, Songlin,Lee, Michael,Lubberstedt, Thomas,Wang, Jianhua,Zhao, Guangwu. 2017

[9]Large-scale analysis of phosphorylated proteins in maize leaf. Bi, Ying-Dong,Lu, Tian-Cong,Shen, Zhuo,Chen, Yi-Bo,Wang, Bai-Chen,Bi, Ying-Dong,Lu, Tian-Cong,Shen, Zhuo,Chen, Yi-Bo,Wang, Bai-Chen,Bi, Ying-Dong,Wang, Hong-Xia,Li, Xiao-hui.

[10]Large-scale comparative phosphoprotein analysis of maize seedling leaves during greening. Ning, De-Li,Ning, De-Li,Wang, Yue-Feng,Wang, Bai-Chen,Liu, Ke-Hui,Wang, Ying-Chun,Liu, Chang-Cai,Liu, Jin-Wen,Qian, Chun-Rong,Yu, Yang.

[11]Biochemical and Transcriptional Regulation of Membrane Lipid Metabolism in Maize Leaves under Low Temperature. Gu, Yingnan,He, Lin,Zhao, Changjiang,Wang, Feng,Yan, Bowei,Gao, Yuqiao,Li, Zuotong,Yang, Kejun,Xu, Jingyu,Gu, Yingnan. 2017

[12]New insight into the mechanism of heterofertilization during maize haploid induction. Liu, Chenxu,Chen, Baojian,Xu, Xiaowei,Li, Wei,Dong, Xin,Tian, Xiaolong,Chen, Chen,Zhong, Yu,Chen, Ming,Chen, Shaojiang,Ma, Yanhua,Dong, Xin.

[13]Genome-wide comparative analysis of digital gene expression tag profiles during maize ear development. Liu, Hongjun,Qin, Cheng,Zhang, Yongzhong,Liu, Sisi,Shen, Yaou,Lin, Haijian,Zhang, Zhiming,Pan, Guangtang,Yang, Xuerong,Liao, Xinhui,Zhou, Huangkai,Zuo, Tao,Qin, Cheng,Cao, Shiliang,Dong, Ling,Luebberstedt, Thomas.

[14]A comparison of different methods of decomposing maize straw in China. Kuang, Enjun,Chi, Fengqin,Su, Qingrui,Zhang, Jiuming,Jeng, Alhaji S..

作者其他论文 更多>>