Functional analysis of FLOWERING LOCUS T orthologs from spring orchid (Cymbidium goeringii Rchb. f.) that regulates the vegetative to reproductive transition

文献类型： 外文期刊

第一作者： Xiang, Lin

作者： Xiang, Lin;Li, Xiaobai;Qin, Dehui;Guo, Fangqi;Wu, Chao;Miao, Lixiang;Sun, Chongbo

作者机构：

关键词： Flower induction;FLOWERING LOCUS T (FT);Gene expression;Spring orchid;Tobacco

期刊名称：PLANT PHYSIOLOGY AND BIOCHEMISTRY （ 影响因子：4.27； 五年影响因子：4.816 ）

ISSN：

年卷期：

页码：

收录情况： SCI

摘要： The FLOWERING LOCUS T (. FT) gene plays crucial roles in regulating the vegetative-to-reproductive phase transition. The. FT-like gene of spring orchid (. Cymbidium goeringii Rchb. f.),. CgFT, was isolated and characterized. CgFT mRNA was detected in leaves, pseudobulb, and flowers. In flowers, Cg. FT was expressed more in young flower buds than in mature flowers, and was predominantly expressed in young ovary and sheath. Seasonal expression analysis in leaves of a three-year-old spring orchid showed that a large increase in transcription, which started on June 20 for. CgFT. We propose that the increased transcription in the middle of June marks the beginning of flower induction in this species. The ectopic expression of. CgFT in transgenic tobacco plants showed novel phenotypes by flowering earlier than wild-type plants. Further analysis of the flowering time-related genes indicated that the expression of. LEAFY,. APETALLA1,. FRUITFULL and. SEPALLATA1 were significantly upregulated in 35S:. CgFT transgenic tobacco plants. These results indicated that. CgFT is a putative. FT homolog in spring orchid that regulates flower transition, similar to its homolog in. Arabidopsis. This study provides the first information on the spring orchid floral gene to elucidate the regulation of the flowering transition in spring orchid.

分类号： Q945

  • 相关文献

[1]Isolation and Characterization of an ERF Transcription Factor Gene from Cotton (Gossypium barbadense L.). Xianpeng Meng,Fuguang Li,Chuanliang Liu,Chaojun Zhang,Zhixia Wu,Yajuan Chen.

[2]Identification of cotton SKP1-like gene GhSKP1 and its function in seed germination and taproot growth in tobacco. Delong Hu,Quanzhan Chen,Chao-Jun Zhang,Ye Wang,Bian-Jiang Zhang,Can-Ming Tang. 2013

[3]Genome-wide identification of the expansin gene family in tobacco (Nicotiana tabacum). Ding, Anming,Marowa, Prince,Kong, Yingzhen.

[4]Dry mycelium of Penicillium chrysogenum activates defense responses and restricts the spread of Tobacco Mosaic Virus in tobacco. Zhong, Yu,Chen, Zhuang-zhuang,Xie, Hong,Luo, Dan,Dai, Jin-ran,Wang, Jian-guang,Chen, Sui-yun,Peng, Jie-jun,Yan, Fei,Dong, He-zhong,Xie, Hong.

[5]IDENTIFICATION OF EXPRESSED RESISTANCE GENE ANALOGS (RGA) AND DEVELOPMENT OF RGA-SSR MARKERS IN TOBACCO. Yuan, Qinghua,Xie, Ruihong,Zhang, Zhenchen,Ma, Zhuwen,Li, Jiqin,Li, Shuling,Chen, Junbiao,Lu, Yonghua. 2015

[6]Genome-wide analysis of TCP family in tobacco. Chen, L.,Ding, A. M.,Chen, H.,Xia, F.,Wang, W. F.,Sun, Y. H.,Chen, L.,Chen, H.,Xia, F.,Wang, W. F.,Chen, Y. Q.. 2016

[7]Stable Expression of Basic Fibroblast Growth Factor in Chloroplasts of Tobacco. Wang, Yun-Peng,Wei, Zheng-Yi,Zhong, Xiao-Fang,Lin, Chun-Jing,Zhang, Yu-Ying,Liu, Yan-Zhi,Xing, Shao-Chen,Cai, Yu-Hong,Ma, Jian,Zhang, Yu-Ying. 2016

[8]A NEW ISOLATE OF CHILLI VEINAL MOTTLE VIRUS THAT INFECTS TOBACCO IN CHINA. Yang, J.,Wang, R.,Luo, Z. P.,Dong, J. H.,Zhang, T. J.,Zhang, Z. K.,Luo, H. Y.. 2013

[9]Production of Bioactive Recombinant Bovine Chymosin in Tobacco Plants. Wei, Zheng-Yi,Fan, Ming-Xia,Lin, Feng,Wei, Zheng-Yi,Zhang, Yu-Ying,Wang, Yun-Peng,Zhong, Xiao-Fang,Xing, Shao-Chen,Zhang, Yu-Ying,Xu, Nuo. 2016

[10]Expression of rabbit defensin NP-1 gene in transgenic tobacco plants and its activity against bacterial wilt. Peng, YF,Cao, GC,Ma, JS,Chen, CX,Zhang, LM,Li, WB,Sun, YR. 1998

[11]Overexpression of a novel peanut NBS-LRR gene AhRRS5 enhances disease resistance to Ralstonia solanacearum in tobacco. Chen, Hua,Cai, Tiecheng,Deng, Ye,Zhuang, Weijian,Zhang, Chong,Chen, Hua,Cai, Tiecheng,Deng, Ye,Zhuang, Ruirong,Zhang, Ning,Zeng, Yuanhuan,Zheng, Yixiong,Zhuang, Weijian,Zheng, Yixiong,Tang, Ronghua,Pan, Ronglong,Pan, Ronglong. 2017

[12]Responses of Antioxidant Enzymes to Chilling Stress in Tobacco Seedlings. Xu Sheng-chun,Hu Jin,Guan Ya-jing,Zhu Shui-jin,Li Yong-ping,Ma Wen-guang,Zheng Yun-ye,Xu Sheng-chun. 2010

[13]Enhanced V-ATPase activity contributes to the improved salt tolerance of transgenic tobacco plants overexpressing vacuolar Na+/H+ antiporter AtNHX1. Luo, Ping,Li, Yinxin,Zhou, Shufeng,Zhang, Zhiming,Tang, Qilin,Lan, Hai. 2011

[14]The detection of QTLs controlling bacterial wilt resistance in tobacco (N-tabacum L.). Qian, Yi-liang,Yao, Da-nian,Qian, Yi-liang,Zu, Chao-long,Gao, Zheng-liang,Sun, Xue-yong,Wang, Xin-sheng,Wang, Da-zhou,Zhang, Hong-jun,Zhang, Hong-jun,Wang, Zhi-yong. 2013

[15]ATP-Citrate Lyase Gene (SoACLA-1), a Novel ACLA Gene in Sugarcane, and Its Overexpression Enhance Drought Tolerance of Transgenic Tobacco. Li, Jian,Sun, Bo,Liu, Jia-Yi,Zhao, Wen-Hui,Huang, Chan,Yang, Li-Tao,Li, Yang-Rui,Yang, Li-Tao,Li, Yang-Rui. 2017

[16]Plasma membrane NADPH oxidase in tobacco-tobacco mosaic virus interaction. Zhang, HM,Chen, J. 1999

[17]The antioxidative defense system is involved in the premature senescence in transgenic tobacco (Nicotiana tabacum NC89). Liu, Yu,Wang, Lu,Liu, Heng,Zhao, Rongrong,Liu, Bin,Zhang, Yuanhu,Fu, Quanjuan. 2016

[18]Construction of a high-density SNP genetic map in fluecured tobacco based on SLAF-seq. Gong, Daping,Xu, Xiuhong,Wang, Chuanyi,Ren, Min,Wang, Chunkai,Chen, Mingli,Huang, Long,Xu, Xiuhong,Wang, Chunkai,Wang, Chunkai.

[19]Rapid determination of transgene copy number in tobacco by competitive PCR using a pair of SSR primers. Xu, K. Y.,Wang, S. H.,Xi, L.,Wang, Q. J.,Dong, C.,Zhang, J. Y.,Qu, S. C.,Zhang, Z.,Xi, L.,Wang, Q. J.,Dong, C.. 2010

[20]Light Quality Regulates Lateral Root Development in Tobacco Seedlings by Shifting Auxin Distributions. Meng, Lin,Song, Wenjing,Dong, Jianxin,Wang, Chengdong,Xu, Yimin,Wang, Shusheng,Meng, Lin,Liu, Shangjun,Zhang, Yali.

作者其他论文 更多>>

微信小程序