数字农科院2.0

Evolution of the PEBP gene family and selective signature on FT‐like clade

文献类型: 外文期刊

作者: 郑晓明;;吴赴清;;张欣;;林启冰;;王洁;;郭秀萍;;雷财林;;程治军;;邹城;;万建民

作者机构:

关键词: adaptation; duplication; FT-like genes; flowering time; recent positive selection

期刊名称: Journal of Systematics and Evolution

ISSN: 1674-4918

年卷期: 2016 年

页码:

收录情况: JCR(2021版) ; CSCD(2020-2021年度) ; 科技核心(2020版)

摘要: The PEBP family of proteins, which encode a phosphatidyl ethanolamine-binding protein (PEBP) domain, serve as a hub in the network of integrating environmental and developmental signals to regulate flowering in all angiosperms. To understand how PEBP duplication genes arose and evolved during plant evolution, we identified 259 genes involved in the PEBP domain from 25 species, including angiosperms, gymnosperms, and embryophytes. We found that plant PEBP genes could be divided into three monophyletic groups, including FT-like, TFL-like and MFT-like subgroups. Based on the phylogeny, FT-like and TFL-like subgroups split before the angiosperm divergence. The likelihood ratio test indicates that the FT-like clade is significantly different in Ka/Ks with TFL-like and MFT-like clades. We found this shift in mutation might be attributed to the positive selection imposed on the fourth exon of recent FT duplications. Divergent expression patterns of FT paralogs indicated that they had undergone subfunctionalization after duplication. In addition, some of the FT-like genes have been targets of selection during domestication in rice and maize, for which the flowering time is an important agronomic trait. These results imply potential recent positive selection on FT-like genes with potential to increase the prevalence of novel functional alleles leading to extensive plant flowering time diversity and adaptation to environmental changes.

分类号:

  • 相关文献

[1]On the Role of Transposable Elements in the Regulation of Gene Expression and Subgenomic Interactions in Crop Genomes. Gill Rafaqat A.,Scossa Federico,King Graham J.,Golicz Agnieszka,Tong Chaobo,Snowdon Rod J.,Fernie Alisdair R.,Liu Shengyi. 2021

[2]Genome-Wide Identification And Expression Analysis O.f The Dof Transcription F actor Gene Family In Gossypium Hirsutum L.. Zhao, Qin,Dou, Lingling,Ren, Zhongying,Xi, Ruimin,Wang, Ping,Li, Huaizhu,Pei, Xiaoyu,Li, Huaizhu,Liu, Yangai,Li, Wei. 2018

[3]Genome-Wide Analysis Of Gras Transcription F.actor Gene Family In G ossypium Hirsutum L.. Li, Fu G.,Zhang, Xue Y.,Li, Fu G.,Zhang, Chao J.,Chen, Er Y.,Zhang, Bin,Yang, Zhao E.,Liu, J.,Zhang, Bin. 2018

[4]Genome-Wide Analysis Of Bes1 Genes I.n Gossypium Revealed Their E volutionary Conserved Roles In Brassinosteroid Signaling. Lu, Lili,Yang, Zuoren,Liu, Zhao,Ma, Shuya,Qanmber, Ghulam,Liu, Ji,Li, Jie,Yang, Zhaoen,Yang, Zuoren,Qin, Wenqiang. 2018

[5]Protein Interactomic Analysis Of Sapks A.nd Aba-Inducible Bzips Revealed K ey Roles Of Sapk10 In Rice Flowering. Zhang, Jian,Ao, Hejun,Hou, Yuxuan,Li, Zhiyong,Liu, Xixi,Tong, Xiaohong,Wang, Huimei,Wang, Yifeng. 2019

[6]Natural Variations Of Ft Family G.enes In Soybean Varieties C overing A Wide Range Of Maturity Groups. Abdul, Mohammad,Song, Wenwen,Zhang, Chengsheng,Han, Tianfu,Khan, Awal,Wu, Cunxiang,Jiang, Bingjun,Sun, Shi,Wu, Tingting,Zhang, Shouwei. 2019

[7]Mutagenesis Of Gmft2A And Gmft5A M.ediated By Crispr/Cas9 Contributes F or Expanding The Regional Adaptability Of Soybean. Jiang, Bingjun,Liu, Luping,Hou, Wensheng,Han, Tianfu,Chen, Li,Wu, Tingting,Yao, Weiwei,Wu, Cunxiang,Sun, Shi,Wang, Liwei,Yao, Weiwei,Cai, Yupeng,Hou, Wensheng,Cai, Yupeng,Chen, Li,Yuan, Shan. 2019

[8]Sip1 Participates In Regulation Of F.lowering Time In Rice B y Recruiting Ostrx1 To Ehd1. Qian, Qian,Lin, Haiyan,Jiang, Pengfei,Zhang, Fei,Zheng, Han,Wang, Shiliang,Li, Hao,Wang, Shiliang,Ding, Yong,Jiang, Pengfei,Su, Yanhua,Xu, Zuntao. 2018

[9]Genome-Wide Analysis Elucidates The Role O.f Constans-Like Genes In S tress Responses Of Cotton. Li, Fuguang,Zhao, Ge,Yang, Zhaoen,Wang, Xindong,Yu, Ya,Qin, Wenqiang,Hu, Wei,Yang, Zhaoen,Chen, Chuanjia,Li, Zhi,Li, Fuguang,Qin, Wenqiang,Jin, Yuying,Liu, Ji,Li, Huiqin,Xi, Jianping. 2018

[10]Crispr/Cas9-Mediated Targeted Mutagenesis Of Gmft2A D.elays Flowering Time In S oya Bean. Sun, Shi,Liu, Xiujie,Jiang, Bingjun,Wu, Cunxiang,Hou, Wensheng,Hou, Wensheng,Liu, Xiujie,Guo, Chen,Chen, Li,Cai, Yupeng,Chen, Li,Han, Tianfu,Guo, Chen,Cai, Yupeng. 2018

[11]The Asparagine-Rich Protein Nrp Interacts W.ith The Verticillium Effector P evd1 And Regulates The Subcellular Localization Of Cryptochrome 2. Gong, Qingqiu,Qiu, Dewen,Liu, Yanli,Han, Lei,Liu, Xinqi,Han, Dandan,Zhu, Tong,Zhou, Ruimin,Liu, Mengjie,Xu, Mengyuan. 2017

[12]The Antiphasic Regulatory Module Comprising C.df5 And Its Antisense R na Flore Links The Circadian Clock To Photoperiodic Flowering. Henriques, R, Wang, H, Liu, J, Boix, M, Huang, LF, Chua, NH. 2017

[13]Oscol16, Encoding A Constans-Like Protein, R.epresses Flowering By Up R egulating Ghd7 Expression In Rice. Wu, WX, Zheng, XM, Chen, DB, Zhang, YX, Ma, WW, Zhang, H, Sun, LP, Yang, ZF, Zhao, CD, Zhan, XD, Shen, XH, Yu, P, Fu, YP, Zhu, SS, Cao, LY, Cheng, SH. 2017

[14]Light- And Temperature-Entrainable Circadian Clock In Soybean Development. Wang, Y, Yuan, L, Su, T, Wang, Q, Gao, Y, Zhang, SY, Jia, Q, Yu, GL, Fu, YF, Cheng, Q, Liu, BH, Kong, FJ, Zhang, X, Song, CP, Xu, XD, Xie, QG. 2020

[15]Association Mapping Of Loci Controlling G.enetic And Environmental Interaction O f Soybean Flowering Time Under Various Photo-Thermal Conditions. Mao, TT, Li, JY, Wen, ZX, Wu, TT, Wu, CX, Sun, S, Jiang, BJ, Hou, WS, Li, WB, Song, QJ, Wang, DC, Han, TF. 2017

[16]Genetic Dissection Of Flowering Time I.n Brassica Rapa Responses T o Temperature And Photoperiod. Xiao, D, Shen, HR, Zhao, JJ, Wei, YP, Liu, DR, Hou, XL, Bonnema, G. 2019

[17]Characterising Genes Associated With Flowering T.ime In Carrot (Daucus C arota L.) Using Transcriptome Analysis. Ou, CG, Mao, JH, Liu, LJ, Li, CJ, Ren, HF, Zhao, ZW, Zhuang, FY. 2017

[18]Early Heading 7 Interacts With D.th8, And Regulates Flowering T ime In Rice. Cai, MH, Chen, SH, Wu, MM, Zheng, TH, Zhou, L, Li, CN, Zhang, H, Wang, JC, Xu, XY, Chai, JT, Ren, YL, Guo, XP, Zhang, X, Lei, CL, Cheng, ZJ, Wang, J, Jiang, L, Zhai, HQ, Wang, HY, Zhu, SS, Wan, JM. 2019

[19]Nonfunctional alleles of long-day suppressor genes independently regulate flowering time. 郑晓明,,冯雳,,王君瑞,,乔卫华,,杨庆文. 2016

[20]Mutagenesis of GmFT2a and GmFT5a mediated by CRISPR/Cas9 contributes for expanding the regional adaptability of soybean. Cai, YP, Wang, LW, Chen, L, Wu, TT, Liu, LP, Sun, S, Wu, CX, Yao, WW, Jiang, BJ, Yuan, S, Han, TF, Hou, WS. 2020

作者其他论文 更多>>