数字农科院2.0

Molecular dissection of hemizygote-dependent dominance of super-early flowering in soybean

文献类型: 外文期刊

作者: Xu, Xin;Yu, Yang;Jiang, Bingjun;Cao, Dong;Zhang, Lixin;Jia, Hongchang;Sun, Xuegang;Chen, Li;Yuan, Shan;Chen, Fulu;Lu, Zefu;Liu, Yanhong;Naser, Mahmoud;Wu, Tingting;Wu, Cunxiang;Zhang, Qingzhu;Sun, Shi;Han, Tianfu

作者机构:

关键词: Soybean;Hemizygote-dependent dominance;Flowering time;siRNA;DNA methylation

期刊名称: CROP JOURNAL

ISSN: 2095-5421

年卷期: 2025 年 13 卷 3 期

页码:

收录情况: SCIE(2025版) ; ; CSCD(2025-2026年度) ; ; 科技核心(2024版) ; ; 农林核心(2024版)

摘要: In plants, numerous non-Mendelian inherited dominant effects, including over-, incomplete-, and codominance, are frequently observed, yet they remain insufficiently understood. A novel phenotype has been identified in specific soybean transformants overexpressing a single 35S::GmFT2a copy: superearly flowering dominance is exclusively observed in hemizygotes, not in homozygotes. Homozygous individual exhibits siRNA-mediated DNA methylation, causing epigenetic transcriptional silencing, whereas no such effect occurs in hemizygotes. Intriguingly, two distinct rounds of DNA methylation establishment occur, each mediated by a different mechanism. The homozygotes that derived from the hemizygous mother plants carrying 35S::GmFT2a locus was associated with the initiation of CHHcontext DNA methylation at 35S promoters mediated by 21 and 22 nucleotide (nt) siRNAs. Subsequently, 24 nt siRNAs contribute to additional CHG- and CG-context DNA methylation at 35S promoters during the homozygosity of genes in plants already homozygous in maternal lineage. Reducing DNA methylation levels can be achieved by generating a hemizygous genotype through a crossing experiment with a recessive genotype. This research has unveiled a phenomenon: hemizygote-dependent dominance resulting from transcriptional silencing in homozygote offsprings. It provides new insights into the molecular mechanism underlying dominant effects. (c) 2025 Crop Science Society of China and Institute of Crop Science, CAAS. Production and hosting by Elsevier B.V. on behalf of KeAi Communications Co., Ltd. This is an open access article under the CC BY-NCND license (http://creativecommons.org/licenses/by-nc-nd/4.0/).

分类号:

  • 相关文献

[1]Integrated Multi-Omics Reveals Significant Roles of Non-Additively Expressed Small RNAs in Heterosis for Maize Plant Height. Jie Zhang,Yuxin Xie,Hongwei Zhang,Cheng He,Xiaoli Wang,Yu Cui,Yanfang Heng,Yingchao Lin,Riliang Gu,Jianhua Wang,Junjie Fu. 2023

[2]siRNA induced DNA methylation of the cry1Ac gene due to its inverted duplication in genetically modified cotton MON531. 黄春蒙, 陈秀萍, 于惠林, 侯晨辉, 关浩源, 谢家建. 2025

[3]Molecular and geographic evolutionary support for the essential role of GIGANTEAa in soybean domestication of flowering time. Wang, Yan,Gu, Yongzhe,Gao, Huihui,He, Chaoying,Gu, Yongzhe,Gao, Huihui,Qiu, Lijuan,Chang, Ruzhen,Chen, Shouyi. 2016

[4]A CIB1-LIKE transcription factor GmCIL10 from soybean positively regulates plant flowering. Yang DeGuang,Zhao Wang,Meng YingYing,Li HongYu,Liu Bin. 2015

[5]Identification of photoperiod-regulated gene in soybean and functional analysis in Nicotiana benthamiana. Sha Ai-Hua,Shan Zhi-Hui,Zhang Xiao-Juan,Wu Xue-Jun,Qiu De-Zheng,Zhou Xin-An,Chen Yin-Hua,Sha Ai-Hua,Shan Zhi-Hui,Zhang Xiao-Juan,Wu Xue-Jun,Qiu De-Zheng,Zhou Xin-An.

[6]Genome-wide signatures of the geographic expansion and breeding of soybean. Li, Ying-Hui,Qin, Chao,Wang, Li,Jiao, Chengzhi,Hong, Huilong,Tian, Yu,Li, Yanfei,Xing, Guangnan,Wang, Jun,Gu, Yongzhe,Gao, Xingpeng,Li, Delin,Li, Hongyu,Liu, Zhangxiong,Jing, Xin,Feng, Beibei,Zhao, Tao,Guan, Rongxia,Guo, Yong,Liu, Jun. 2022

[7]Functional Redundancy of FLOWERING LOCUS T 3b in Soybean Flowering Time Regulation. Qiang Su,Li Chen,Yupeng Cai,Yingying Chen,Shan Yuan,Min Li,Jialing Zhang,Shi Sun,Tianfu Han,Wensheng Hou. 2022

[8]GmFT3a fine-tunes flowering time and improves adaptation of soybean to higher latitudes. Shan Yuan,Yining Wang,Junya Wang,Chunlei Zhang,Lixin Zhang,Bingjun Jiang,Tingting Wu,Li Chen,Xin Xu,Yupeng Cai,Shi Sun,Fulu Chen,Wenwen Song,Cunxiang Wu,Wensheng Hou,Lijie Yu,Tianfu Han. 2022

[9]CONSTANS Polymorphism Modulates Flowering Time and Maturity in Soybean. Mohammad Abdul Awal Khan,Shouwei Zhang,Reza Mohammad Emon,Fulu Chen,Wenwen Song,Tingting Wu,Shan Yuan,Cunxiang Wu,Wensheng Hou,Shi Sun,Yongfu Fu,Bingjun Jiang,Tianfu Han. 2022

[10]GmTCP40 Promotes Soybean Flowering under Long-Day Conditions by Binding to the GmAP1a Promoter and Upregulating Its Expression. Lixin Zhang,Peiguo Wang,Miao Wang,Xin Xu,Hongchang Jia,Tingting Wu,Shan Yuan,Bingjun Jiang,Shi Sun,Tianfu Han,Liwei Wang,Fulu Chen. 2024

[11]GmAP1d regulates flowering time under long-day photoperiods in soybean. Guo, Shiyu,Li, Yanfei,Qiu, Hongmei,Hu, Guoyu,Zhao, Chaosen,Wang, Ruizhen,Zhang, Hao,Tian, Yu,Li, Xiaoyu,Liu, Bin,Li, Ying-hui,Qiu, Li-juan. 2024

[12]Natural variation of domestication-related genes contributed to latitudinal expansion and adaptation in soybean. Jing Li,Yecheng Li,Kwadwo Gyapong Agyenim-Boateng,Abdulwahab Saliu Shaibu,Yitian Liu,Yue Feng,Jie Qi,Bin Li,Shengrui Zhang,Junming Sun. 2024

[13]Epigenetic regulation modulates seasonal temperature-dependent growth of soybean in southern China. Fang, Yuan,Han, Yapeng,Fang, Yijie,Sun, Jin,Lin, Chuxin,Bukhari, Birra,Zhou, Dong,Liu, Bin,Guo, Changkui,Wang, Yingxiang. 2025

[14]Rapid alterations of gene expression and cytosine methylation in newly synthesized Brassica napus allopolyploids. Xu, Yanhao,Zhong, Lan,Wang, Jianbo,Wu, Xiaoming,Fang, Xiaoping.

[15]RNA干扰技术在昆虫中的应用. 曹雅忠,尹姣,杜光青,李克斌,樊东. 2013

[16]靶向FMDV受体猪源整联蛋白α_V亚基基因抑制FMDV复制的最佳siRNA筛选. 骆继怀,独军政,高闪电,张国锋,常惠芸. 2011

[17]禽源U6启动子介导鸡马立克氏病病毒gI、gE基因特异 siRNA的筛选及干扰活性鉴定. 全炎铭,崔红玉,赵妍,赵晓岩,石星明,高宏博,闫帅,张晓艳,王玫,王云峰. 2011

[18]RNA干扰及其在动物传染病方面的研究概况. 杨亮宇,孙永科,杨玉艾,王凯,王玉娥,孔令富. 2012

[19]靶向新城疫病毒L基因(功能区)的siRNA抑制新城疫病毒的复制. 秦红刚,孟庆文,刘丹,李文超,韩凌霞,姜骞,刘家森,曲连东. 2008

[20]靶向pol基因siRNA抑制J亚型禽白血病病毒复制的研究. 张在平,马学恩,杨海彦,田进,孟庆文. 2011

作者其他论文 更多>>