数字农科院2.0

pseudo-GhFAD2-1 Is a lncRNA Involved in Regulating Cottonseed Oleic and Linoleic Acid Ratios and Seed Size in Gossypium hirsutum

文献类型: 外文期刊

作者: Chen, Haihong;Li, Yanjun;Xiong, Xianpeng;Liu, Xuan;Xue, Fei;Sun, Jie;Zhu, Qian-Hao;Liu, Feng

作者机构:

关键词: cottonseed oil;GhFAD2-1;histone deacetylase 1;long non-coding RNA;seed size

期刊名称: PLANT BIOTECHNOLOGY JOURNAL

ISSN: 1467-7644

年卷期: 2025 年

页码:

收录情况: SCIE(2025版)

摘要: Long non-coding RNAs (lncRNAs), defined as transcripts > 200 nt without protein-coding capacity, play crucial regulatory roles in plant growth and development. While numerous lncRNAs exist in plants including cotton (Gossypium spp.), few are functionally characterised. G. hirsutum serves as both a premier fibre crop and significant oil source, where fatty acid desaturase 2 (GhFAD2-1) is a key gene for the synthesis of polyunsaturated fatty acids in cottonseed. In this study, we confirmed that the GhFAD2-1 located on the D subgenome generated a tightly linked homologous copy through a tandem duplication event. Due to sequence divergence in the promoter and gene body following the duplication event, this homologous sequence was identified as a long non-coding RNA (lncRNA) and designated as pseudo-GhFAD2-1 (pGhFAD2-1). Knocking out pGhFAD2-1 increased linoleic acid content and reduced seed size, whereas over-expressing pGhFAD2-1 had opposite effects. pGhFAD2-1 interacts with histone deacetylase GhHDT1 and 40S ribosomal protein GhRPS12, transcriptionally recruiting GhHDT1 to suppress GhFAD2-1 expression and translationally inhibiting GhFAD2 protein synthesis by competitively binding RPS12 with GhFAD2-1 mRNA, ultimately disrupting cottonseed fatty acid biosynthesis. The impact of pGhFAD2-1 on seed size seems to be achieved through the ABA biosynthesis and signalling pathways via GhHDT1, with an increasing level of ABA leading to smaller seeds. The results expand our knowledge on the origin, function and regulatory mechanism of plant lncRNAs and provide new targets and pathways for genetic manipulation of cottonseed oil and seed size.

分类号:

  • 相关文献

[1]Transcriptional Regulation of SWEET15_A01 by MYB44/bHLH3 Modulates Carbon Allocation in Cotton Ovule and Fibre to Affect Seed and Fibre Traits. Le, Yu,Chen, Meilin,Zhu, De,Xu, Zhiyong,Fu, Chao,Xiong, Xinhui,Li, Yuanxue,Yang, Ningyu,Hui, Liuyang,Zhang, Xianlong,Lin, Zhongxu. 2025

[2]Transcriptome analyses of seed development in grape hybrids reveals a possible mechanism influencing seed size. Wang, Li,Hu, Xiaoyan,Jiao, Chen,Li, Zhi,Yan, Xiaoxiao,Wang, Yuejin,Wang, Xiping,Wang, Li,Hu, Xiaoyan,Li, Zhi,Yan, Xiaoxiao,Wang, Yuejin,Wang, Xiping,Jiao, Chen,Fei, Zhangjun,Liu, Chonghuai. 2016

[3]The BnGRF2 gene (GRF2-like gene from Brassica napus) enhances seed oil production through regulating cell number and plant photosynthesis. Liu, Jing,Hua, Wei,Yang, Hong-Li,Zhan, Gao-Miao,Deng, Lin-Bin,Wang, Xin-Fa,Liu, Gui-Hua,Wang, Han-Zhong,Li, Rong-Jun. 2012

[4]Increasing seed mass and oil content in transgenic Arabidopsis by the overexpression of wri1-like gene from Brassica napus. Liu, Jing,Hua, Wei,Zhan, Gaomiao,Wei, Fang,Wang, Xinfa,Liu, Guihua,Wang, Hanzhong.

[5]CRISPR/Cas9-Mediated Targeted Mutagenesis of GmEOD1 Enhances Seed Size of Soybean. Han Yu,Juan Zhao,Li Chen,Tingting Wu,Bingjun Jiang,Cailong Xu,Yupeng Cai,Jialing Dong,Tianfu Han,Shi Sun,Shan Yuan. 2023

[6]WGCNA and transcriptome profiling reveal hub genes for key development stage seed size/oil content between wild and cultivated soybean. Yanjie Yao,Erhui Xiong,Xuelian Qu,Junfeng Li,Hongli Liu,Leipo Quan,Wenyan Lu,Xuling Zhu,Meiling Chen,Ke Li,Xiaoming Chen,Yun Lian,Weiguo Lu,Dan Zhang,Xinan Zhou,Shanshan Chu,Yongqing Jiao. 2023

[7]Can Soybean Cultivars with Larger Seed Size Produce More Protein, Lipids, and Seed Yield? A Meta-Analysis. Xu, Cailong,Wu, Tingting,Yuan, Shan,Sun, Shi,Han, Tianfu,Song, Wenwen,Wu, Cunxiang. 2023

[8]Construction of a high-density adzuki bean genetic map and evaluation of its utility based on a QTL analysis of seed size. Li-xia WANG,Jie WANG,Gao-ling LUO,Xing-xing YUAN,Dan GONG,Liang-liang HU,Suhua WANG,Hong-lin CHEN,Xin CHEN,Xu-zhen CHENG. 2021

[9]SNP-based analysis of genetic diversity reveals important alleles associated with seed size in rice. Weijie Tang, Tingting Wu, Jian Ye, Juan Sun, Yue Jiang, Jun Yu, Jianpeng Tang, Gaoming Chen, Chunming Wang, Jianmin Wan. , Tingting Wu, Jian Ye, Juan Sun, Yue Jiang, Jun Yu, Jianpeng Tang, Gaoming Chen, Chunming Wang, Jianmin Wan.. 2016

[10]Genome-Wide Analysis of the GW2-Like Genes in Gossypium and Functional Characterization of the Seed Size Effect of GhGW2-2D. Li Huang,Shuxian Yang,Luyao Wu,Yue Xin,Jikun Song,Li Wang,Wenfeng Pei,Man Wu,Jiwen Yu,Xiaoyan Ma,Shoulin Hu. 2022

[11]A 13.96-kb chromosomal deletion of two genes is responsible for the tomato seed size in watermelon (Citrullus lanatus). Na Li,Shengnan Kong,Dan Zhou,Jianli Shang,Jiming Wang,Nannan Li,Lifeng Liu,Shuangwu Ma. 2021

[12]Novel Seed Size: A Novel Seed-Developing Gene in Glycine max. Mingxia Zhang,Rui Dong,Penghui Huang,Mingyang Lu,Xianzhong Feng,Yongfu Fu,Xiaomei Zhang. 2023

[13]Transcriptome Analysis and Identification of Genes Associated with Cotton Seed Size. Bing Jia,Pan Feng,Jikun Song,Caoyi Zhou,Yajie Wang,Bingbing Zhang,Man Wu,Jinfa Zhang,Quanjia Chen,Jiwen Yu. 2024

[14]Comprehensive analysis of the Spartina alterniflora WD40 gene family reveals the regulatory role of SaTTG1 in plant development. Maogeng Yang,Shoukun Chen,Jiahui Geng,Shuqiang Gao,Shihua Chen,Huihui Li. 2024

[15]Knockout of miR396 genes increases seed size and yield in soybean∞. Xie, Hongtao,Su, Fei,Niu, Qingfeng,Geng, Leping,Cao, Xuesong,Song, Minglei,Dong, Jinsong,Zheng, Zai,Guo, Rui,Zhang, Yang,Deng, Yuanwei,Ji, Zhanbo,Pang, Kang,Zhu, Jian-Kang,Zhu, Jianhua. 2024

[16]Loss of phytochromobilin synthase activity leads to larger seeds with higher protein content in soybean. Su, Xin,Wang, Hao-Rang,Zhang, Yong,Hong, Hui-Long,Sun, Xu-hong,Wang, Lei,Song, Ji-Ling,Yang, Meng-Ping,Yang, Xing-Yong,Han, Ying-Peng,Qiu, Li-juan. 2025

[17]Genome-wide identification of STERILE APETALA (SAP) like genes in Gossypium and functional characterization of GhSAP_A07 controlling seed size, leaf morphology. Zhang, Bingbing,Han, Wanli,Huang, Li,Jia, Bing,Yang, Shuxian,Song, Jikun,Feng, Pan,Zhang, Zilin,Cheng, Shuaishuai,Wu, Man,Ma, Jianjiang,Wang, Li,Yu, Jiwen,Tian, Qin,Pei, Wenfeng. 2025

[18]Antagonistic effects of selection on alleles associated with seed size and seed dormancy in wheat. Feilong Guo,Changbin Yin,Tian Li,Sitong Liu,Jiayu Dong,Hao Jiang,Yu Fang,Jun Wei,Yi Han,Yu Li,Hong Cao,Yuting Ning,Galal Khamis,Xin Deng,Ke Wang,Jirui Wang,Cuijun Zhang,Fei Lu,Yongxiu Liu. 2025

[19]Functional Intricacy and Symmetry of Long Non-Coding RNAs in Parasitic Infections. Joshua Seun Olajide,Bolatito Olopade,Jianping Cai. 2021

[20]Long Non-Coding RNAs profiling in pathogenesis of Verticillium dahliae: New insights in the host-pathogen interaction. Nana Liu,Ping Wang,Xiancai Li,Yakun Pei,Yun Sun,Xiaowen Ma,Xiaoyang Ge,Yutao Zhu,Fuguang Li,Yuxia Hou. 2022

作者其他论文 更多>>