Search

Your search keyword '"Hao, Meirong"' showing total 15 results
Start Over Author "Hao, Meirong"
15 results on '"Hao, Meirong"'

6. Resequencing of cv CRI‐12 family reveals haplotype block inheritance and recombination of agronomically important genes in artificial selection

Author

Lu, Xuke, primary, Fu, Xiaoqiong, additional, Wang, Delong, additional, Wang, Junyi, additional, Chen, Xiugui, additional, Hao, Meirong, additional, Wang, Junjuan, additional, Gervers, Kyle A., additional, Guo, Lixue, additional, Wang, Shuai, additional, Yin, Zujun, additional, Fan, Weili, additional, Shi, Chunwei, additional, Wang, Xiaoge, additional, Peng, Jun, additional, Chen, Chao, additional, Cui, Ruifeng, additional, Shu, Na, additional, Zhang, Binglei, additional, Han, Mingge, additional, Zhao, Xiaojie, additional, Mu, Min, additional, Yu, John Z., additional, and Ye, Wuwei, additional

Published
2018
Full Text
View/download PDF

7. Resequencing of cv CRI‐12 family reveals haplotype block inheritance and recombination of agronomically important genes in artificial selection.

Author

Lu, Xuke, Fu, Xiaoqiong, Wang, Delong, Wang, Junyi, Chen, Xiugui, Hao, Meirong, Wang, Junjuan, Gervers, Kyle A., Guo, Lixue, Wang, Shuai, Yin, Zujun, Fan, Weili, Shi, Chunwei, Wang, Xiaoge, Peng, Jun, Chen, Chao, Cui, Ruifeng, Shu, Na, Zhang, Binglei, and Han, Mingge

Subjects
BREEDING, COTTON quality, SYNTHETIC genes, COTTON varieties, VERTICILLIUM wilt diseases, COTTON
Abstract

Summary: Although efforts have been taken to exploit diversity for yield and quality improvements, limited progress on using beneficial alleles in domesticated and undomesticated cotton varieties is limited. Given the complexity and limited amount of genomic information since the completion of four cotton genomes, characterizing significant variations and haplotype block inheritance under artificial selection has been challenging. Here we sequenced Gossypium hirsutum L. cv CRI‐12 (the cotton variety with the largest acreage in China), its parental cultivars, and progeny cultivars, which were bred by the different institutes in China. In total, 3.3 million SNPs were identified and 118, 126 and 176 genes were remarkably correlated with Verticillium wilt, salinity and drought tolerance in CRI‐12, respectively. Transcriptome‐wide analyses of gene expression, and functional annotations, have provided support for the identification of genes tied to these tolerances. We totally discovered 58 116 haplotype blocks, among which 23 752 may be inherited and 1029 may be recombined under artificial selection. This survey of genetic diversity identified loci that may have been subject to artificial selection and documented the haplotype block inheritance and recombination, shedding light on the genetic mechanism of artificial selection and guiding breeding efforts for the genetic improvement of cotton. [ABSTRACT FROM AUTHOR]

Published
2019
Full Text
View/download PDF

9. Draft genome sequence of the Tibetan antelope

Author

Ge, Ri-Li, Cai, Qingle, Shen, Yong-Yi, San, A., Ma, Lan, Zhang, Yong, Yi, Xin, Chen, Yan, Yang, Lingfeng, Huang, Ying, He, Rongjun, Hui, Yuanyuan, Hao, Meirong, Li, Yue, Wang, Bo, Ou, Xiaohua, Xu, Jiaohui, Zhang, Yongfen, Wu, Kui, Geng, Chunyu, Zhou, Weiping, Zhou, Taicheng, Irwin, David M., Yang, Yingzhong, Ying, Liu, Bao, Haihua, Kim, Jaebum, Larkin, Denis M., Ma, Jian, Lewin, Harris A., Xing, Jinchuan, Platt, Roy N., II, Ray, David A., Auvil, Loretta, Capitanu, Boris, Zhang, Xiufeng, Zhang, Guojie, Murphy, Robert W., Wang, Jun, Zhang, Ya-Ping, Wang, Jian, Ge, Ri-Li, Cai, Qingle, Shen, Yong-Yi, San, A., Ma, Lan, Zhang, Yong, Yi, Xin, Chen, Yan, Yang, Lingfeng, Huang, Ying, He, Rongjun, Hui, Yuanyuan, Hao, Meirong, Li, Yue, Wang, Bo, Ou, Xiaohua, Xu, Jiaohui, Zhang, Yongfen, Wu, Kui, Geng, Chunyu, Zhou, Weiping, Zhou, Taicheng, Irwin, David M., Yang, Yingzhong, Ying, Liu, Bao, Haihua, Kim, Jaebum, Larkin, Denis M., Ma, Jian, Lewin, Harris A., Xing, Jinchuan, Platt, Roy N., II, Ray, David A., Auvil, Loretta, Capitanu, Boris, Zhang, Xiufeng, Zhang, Guojie, Murphy, Robert W., Wang, Jun, Zhang, Ya-Ping, and Wang, Jian

Published
2013

10. Genome sequence of ground tit Pseudopodoces humilis and its adaptation to high altitude

Author

Cai, Qingle, Qian, Xiaoju, Lang, Yongshan, Luo, Yadan, Xu, Jiaohui, Pan, Shengkai, Hui, Yuanyuan, Gou, Caiyun, Cai, Yue, Hao, Meirong, Zhao, Jinyang, Wang, Songbo, Wang, Zhaobao, Zhang, Xinming, He, Rongjun, Liu, Jinchao, Luo, Longhai, Li, Yingrui, Wang, Jun, Cai, Qingle, Qian, Xiaoju, Lang, Yongshan, Luo, Yadan, Xu, Jiaohui, Pan, Shengkai, Hui, Yuanyuan, Gou, Caiyun, Cai, Yue, Hao, Meirong, Zhao, Jinyang, Wang, Songbo, Wang, Zhaobao, Zhang, Xinming, He, Rongjun, Liu, Jinchao, Luo, Longhai, Li, Yingrui, and Wang, Jun

Published
2013

11. Correction: The genome sequence of the ground tit Pseudopodoces humilis provides insights into its adaptation to high altitude

Author

Cai, Qingle, primary, Qian, Xiaoju, additional, Lang, Yongshan, additional, Luo, Yadan, additional, Xu, Jiaohui, additional, Pan, Shengkai, additional, Hui, Yuanyuan, additional, Gou, Caiyun, additional, Cai, Yue, additional, Hao, Meirong, additional, Zhao, Jinyang, additional, Wang, Songbo, additional, Wang, Zhaobao, additional, Zhang, Xinming, additional, He, Rongjun, additional, Liu, Jinchao, additional, Luo, Longhai, additional, Li, Yingrui, additional, and Wang, Jun, additional

Published
2014
Full Text
View/download PDF

12. Draft genome sequence of the Tibetan antelope

Author

Ge, Ri-Li, primary, Cai, Qingle, additional, Shen, Yong-Yi, additional, San, A, additional, Ma, Lan, additional, Zhang, Yong, additional, Yi, Xin, additional, Chen, Yan, additional, Yang, Lingfeng, additional, Huang, Ying, additional, He, Rongjun, additional, Hui, Yuanyuan, additional, Hao, Meirong, additional, Li, Yue, additional, Wang, Bo, additional, Ou, Xiaohua, additional, Xu, Jiaohui, additional, Zhang, Yongfen, additional, Wu, Kui, additional, Geng, Chunyu, additional, Zhou, Weiping, additional, Zhou, Taicheng, additional, Irwin, David M., additional, Yang, Yingzhong, additional, Ying, Liu, additional, Bao, Haihua, additional, Kim, Jaebum, additional, Larkin, Denis M., additional, Ma, Jian, additional, Lewin, Harris A., additional, Xing, Jinchuan, additional, Platt, Roy N., additional, Ray, David A., additional, Auvil, Loretta, additional, Capitanu, Boris, additional, Zhang, Xiufeng, additional, Zhang, Guojie, additional, Murphy, Robert W., additional, Wang, Jun, additional, Zhang, Ya-Ping, additional, and Wang, Jian, additional

Published
2013
Full Text
View/download PDF

13. Genome sequence of ground tit Pseudopodoces humilis and its adaptation to high altitude

Author

Cai, Qingle, primary, Qian, Xiaoju, additional, Lang, Yongshan, additional, Luo, Yadan, additional, Xu, Jiaohui, additional, Pan, Shengkai, additional, Hui, Yuanyuan, additional, Gou, Caiyun, additional, Cai, Yue, additional, Hao, Meirong, additional, Zhao, Jinyang, additional, Wang, Songbo, additional, Wang, Zhaobao, additional, Zhang, Xinming, additional, He, Rongjun, additional, Liu, Jinchao, additional, Luo, Longhai, additional, Li, Yingrui, additional, and Wang, Jun, additional

Published
2013
Full Text
View/download PDF

14. Genome sequence of ground tit Pseudopodoces humilisand its adaptation to high altitude

Author

Cai, Qingle, Qian, Xiaoju, Lang, Yongshan, Luo, Yadan, Xu, Jiaohui, Pan, Shengkai, Hui, Yuanyuan, Gou, Caiyun, Cai, Yue, Hao, Meirong, Zhao, Jinyang, Wang, Songbo, Wang, Zhaobao, Zhang, Xinming, He, Rongjun, Liu, Jinchao, Luo, Longhai, Li, Yingrui, and Wang, Jun

Abstract

The mechanism of high-altitude adaptation has been studied in certain mammals. However, in avian species like the ground tit Pseudopodoces humilis, the adaptation mechanism remains unclear. The phylogeny of the ground tit is also controversial. Using next generation sequencing technology, we generated and assembled a draft genome sequence of the ground tit. The assembly contained 1.04 Gb of sequence that covered 95.4% of the whole genome and had higher N50 values, at the level of both scaffolds and contigs, than other sequenced avian genomes. About 1.7 million SNPs were detected, 16,998 protein-coding genes were predicted and 7% of the genome was identified as repeat sequences. Comparisons between the ground tit genome and other avian genomes revealed a conserved genome structure and confirmed the phylogeny of ground tit as not belonging to the Corvidae family. Gene family expansion and positively selected gene analysis revealed genes that were related to cardiac function. Our findings contribute to our understanding of the adaptation of this species to extreme environmental living conditions. Our data and analysis contribute to the study of avian evolutionary history and provide new insights into the adaptation mechanisms to extreme conditions in animals.

Published
2013
Full Text
View/download PDF

Catalog

Books, media, physical & digital resources
See catalog results