数字农科院2.0

Pollen Quantitative and Genetic Competitiveness of Rice (Oryza sativa L.) and Their Effects on Gene Flow

文献类型： 外文期刊

作者： Hu, Ning;Wang, Dantong;Yuan, Qianhua;Liu, Yang;Jiang, Huizi;Pei, Xinwu

作者机构：

关键词： gene flow rate;rice (Oryza sativa L.);pollen;quantitative competition;genetic competitiveness

期刊名称： PLANTS-BASEL

ISSN： 2223-7747

年卷期： 2025 年 14 卷 13 期

页码：

收录情况： SCIE（2025版）

摘要： The gene flow rate in rice (Oryza sativa L.) is a critical factor for establishing safe isolation distances between genetically modified (GM) and non-GM varieties and for ensuring varietal purity in rice breeding programs. This study refines existing gene flow models by disentangling two key components of rice pollen dynamics: quantitative pollen competition and genetic competitiveness. We define B as the proportion of GM pollen within mixed pollen, representing quantitative pollen competitiveness. The outcrossing parameter Cb reflects the likelihood of successful fertilization and seed development by foreign pollen, while the hybrid compatibility parameter Cp captures the relative fertilization success of GM versus non-GM pollen within the same pollen pool. Together, Cb and Cp characterize the genetic competitiveness of rice pollen. Our findings reveal a nonlinear relationship between B and the observed GM pollen rate G, which may exhibit either upward or downward curvature. A nonlinear model provides a significantly better fit to this relationship than a linear model, improving R2 by 4.1-21.4% and reducing RMSE by 9.9-47.8%. The parameters Cb and Cp play central roles in determining gene flow; higher values correspond to stronger GM pollen competitiveness, resulting in higher gene flow rates and greater dispersal distances. Specifically, Cb sets the range of the B-G curve, while Cp determines its curvature.

分类号：

  • 相关文献

[1]Genetic Dissection for Leaf Correlative Traits of Rice (Oryza sativa L.)Under Drought Stress. Guo Longbiao,Qian Qian,Zeng Dali,Dong Guojun,Teng Sheng,Zhu Lihuang. 2004

[2]Application of the maximum threshold distances to reduce gene flow frequency in the coexistence between genetically modified (GM) and non-GM maize. Hu, Ning,Hu, Ji-chao,Jiang, Xiao-dong,Xiao, Wei,Yao, Ke-min,Li, Liang,Li, Xin-hai,Pei, Xin-wu. 2022

[3]The Arabidopsis U-box/ARM repeat E3 ligase AtPUB4 influences growth and degeneration of tapetal cells, and its mutation leads to conditional male sterility. Wang, Hai,Jiang, Tiantian,Xia, Yiji,Wang, Hai,Berg, Howard,Xia, Yiji,Lu, Yuqing,Li, Cong. 2013

[4]Comparative life history characteristics of the mite predator Neoseiulus cucumeris (Oudemans) (Acari: Phytoseiidae) on mite and pollen diets. Sarwar, Muhammad.

[5]Genetic and histological characterization of a novel recessive genic male sterile line of Brassica napus derived from a cross with Capsella bursa-pastoris. Chen, Hai-Feng,Ge, Xian-Hong,Du, Xue-Zhu,Zhao, Zhi-Gang,Li, Zai-Yun,Chen, Hai-Feng.

[6]Cloning and expression analysis of a pollen preferential rapid alkalinization factor gene, BoRALF1, from broccoli flowers. Zhang, Guo-yu,Wu, Jian,Wang, Xiao-wu. 2010

[7]Use of an innovative T-tube maze assay and the proboscis extension response assay to assess sublethal effects of GM products and pesticides on learning capacity of the honey bee Apis mellifera L.. Peng Han,Chang-Ying Niu,Chao-Liang Lei,Jin-Jie Cui,Nicolas Desneux. 2010

[8]Host Plants Identification for Adult Agrotis ipsilon, a Long-Distance Migratory Insect. Liu, Yongqiang,Fu, Xiaowei,Xing, Zhenlong,Wu, Kongming,Mao, Limi. 2016

[9]In Vitro Conservation and Cryopreservation in National Genebank of China. Zhang, Jinmei,Xin, Xia,Yin, Guangkun,Lu, Xinxiong,Chen, Xiaoling. 2014

[10]Holocene terrestrialization process on the Sanjiang Plain (China) and its significance to the East Asian summer monsoon circulation. Zhenqing Zhang,Mingxiang Yang,Lin Li,Rui Yin,Lili Huo. 2022

[11]Droplet digital polymerase chain reaction (ddPCR) for rapid screening of adulterants in honey: A case study on acacia honey adulterated with canola honey. Zhaotong You,Yingting Mei,Xiaofu Wang,Xiaoyun Chen,Junfeng Xu. 2021

[12]Improving Ultra-Low Temperature Preservation Technologies of Soybean Pollen for Off-Season and Off-Site Hybridization. Hongchang Jia,Xin Liang,Lixin Zhang,Jinmei Zhang,Enoch Sapey,Xianyuan Liu,Yanhui Sun,Shi Sun,Hongrui Yan,Wencheng Lu,Tianfu Han. 2022

[13]Effects of Three Types of Pollen on the Growth and Development of Honey Bee Larvae (Hymenoptera, Apidae). Chunxiu Pang,Kun Dong,Yueqin Guo,Guiling Ding,Yuming Lu,Zhanbao Guo,Jie Wu,Jiaxing Huang. 2022

[14]Fabrication of ultrafine sporopollenin particles and its application as pesticide carrier. Teng Fei Fan,Sheng Xiang,Lei Li,Xue Wen Xie,A. Li Chai,Yan Xia Shi,Na Liu,Rizwangul Abdukerim,Jia Yi Ma,Jia Shi,Yu Yang Luan,Cheng Dong Hou,Bao Ju Li. 2022

[15]Pollen Molecular Identification from a Long-Distance Migratory Insect, Spodoptera exigua, as Evidenced for Its Regional Pollination in Eastern Asia. Jia, Huiru,Wang, Tengli,Li, Xiaokang,Zhao, Shengyuan,Guo, Jianglong,Liu, Dazhong,Liu, Yongqiang,Wu, Kongming. 2023

[16]Bombus terrestris Prefer Mixed-Pollen Diets for a Better Colony Performance: A Laboratory Study. Ziyu Zhou,Hong Zhang,Shibonage K. Mashilingi,Chunting Jie,Baodi Guo,Yi Guo,Xiao Hu,Shahid Iqbal,Bingshuai Wei,Yanjie Liu,Jiandong An. 2024

[17]Design and validation of a sampling module for a cyclonic wet-wall bioaerosol sampler using a computational fluid dynamics model. Shuyi Jiang,Xinmei Wang,Shuo Zhang,Qiang Wu,Lixia Hou,Xi Qiao. 2024

[18]Improving bee feed recipes to safeguard honeybee colonies during times of food scarcity. Xue Wang,Xing Zheng,Nana Guo,Mingyang Geng,Rongshen Wang,Ting Huang,Quanzhi Ji,Zhenxing Liu,Yazhou Zhao. 2024

[19]A method for detecting transgenic rapeseed using pollen collected by Apis mellifera L. Yuan, Rong,Wang, Miao,Li, Zhen,Hong, Meiyan,Su, Li,Wu, Gang,Zeng, Xinhua. 2025

[20]ALBA3 maintains male fertility under heat stress in plants. Ci, Dong,Liu, Yi,Wang, Lishuan,Zhu, Ruixian,Chen, Yong,Bai, Ge,Xu, Ziyan,Zhou, Huanbin,Zhou, Xueping,Fan, Liu-Min,Qian, Weiqiang. 2025

作者其他论文 更多>>