数字农科院2.0

Understanding brassinosteroid‐centric phytohormone interactions for crop improvement

文献类型: 外文期刊

作者: Wenchao Yin;; Nana Dong;;Xicheng Li;;Yanzhao Yang;;Zefu Lu;;Wenbin Zhou1;; Qian Qian;; Chengcai Chu and Hongning Tong

关键词: agronomic trait; brassinosteroid; crop; crosstalk; phytohormone

期刊名称: Journal of Integrative Plant Biology

ISSN: 1672-9072

年卷期: 2025 年

页码:

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

摘要: Brassinosteroids (BRs) play a crucial role in regulating multiple biological processes in plants, particularly those related to crop productivity and stress tolerance. During their functioning, BRs engage in extensive and intricate interactions with other phytohormones, including auxin, cytokinins, gibberellins, abscisic acid, ethylene, jasmonates, salicylic acid, and strigolactones. These interactions facilitate the integration of internal and external signals, ultimately shaping the physiological status of the plant. In this review, we introduce BR metabolism and signaling and discuss their role in modulating agronomic traits that directly contribute to grain yield in rice (Oryza sativa), the model plant for crops. We also summarize recent advances in the crosstalk between BRs and other phytohormones in regulating agronomic traits in crops. Furthermore, we highlight significant research that provides insights into developing high‐yielding and stress‐ resistant crop varieties from the perspective of hormone crosstalk. Understanding the genetic and molecular mechanisms through which BRs and other phytohormones collaboratively control agronomic traits offers new approaches for crop improvement.

分类号:

  • 相关文献

[1]Auxin Controlled By Ethylene Steers R.oot Development. Qin, Hua,Qin, Hua,Huang, Rongfeng,Huang, Rongfeng. 2018

[2]The Interactions Of Plant Growth R.egulators And H2O2 During G ermination Improvement Of Sweet Corn Seed Through Spermidine Application. Guan, Yajing,Hu, Jin,Gao, Canhong,Hu, Weimin,Li, Zhan,Huang, Yutao,Zhang, Yuchan. 2018

[3]The Coordination Of Ethylene And O.ther Hormones In Primary R oot Development. Qin, Hua,Huang, Rongfeng,Huang, Rongfeng,He, Lina,Qin, Hua. 2019

[4]Cell-type specific miRNA regulatory network responses to ABA stress revealed by time series transcriptional atlases in Arabidopsis. Zhaoxu Gao, Yanning Su, Guanzhong Jiao, Zhiying Lou, Le Chang, Renbo Yu, Chao Xu, Xue Han, Zejia Wang, Jian Li, Xing Wang Deng, Hang He. 2025

[5]Harnessing Crispr-Mediated Precision Genome Editing T.echnologies For Crop Improvement. Xia, LQ. 2018

[6]Comparative Study On Crop Recognition O.f Landsat-Oli And Rapideye D ata. Liu, J, Wang, LM, Yao, BM, Yang, FG, Yang, LB, Dong, QH. 2017

[7]Manipulation Of Metabolic Pathways To D.evelop Vitamin-Enriched Crops For H uman Health. Jiang, L, Wang, WX, Lian, T, Zhang, CY. 2017

[8]Moisture migration analysis of Chinese naked oat during different storage conditions by sorption isotherm model and low‐field NMR.. 曹丽芳,,李博文,,赵楠,,李欢,,王彦峰,,余兴,,黄鑫. 2020

[9]A reciprocal inhibitory module for Pi and iron signaling. Guo M., Ruan W., Zhang Y., Zhang Y., Wang X., Guo Z., Wang L., Zhou T., Paz-Ares J., Yi K.. 2022

[10]Analysis Of Long Non-Coding Rnas And Mrnas Associated With Lactation In The Crop Of Pigeons (Columba Livia). Ma, H, Ni, AX, Ge, PZ, Li, YL, Shi, L, Wang, PL, Fan, J, Isa, AM, Sun, YY, Chen, JL. 2020

[11]Moisture Migration Analysis Of Chinese Naked Oat During Different Storage Conditions By Sorption Isotherm Model And Low-Field Nmr. Cao, LF, Li, BW, Zhao, N, Li, H, Wang, YF, Yu, X, Huang, X. 2020

[12]Identifying barriers to sustainable apple production: A stakeholder perspective. Jin S., Li W., Cao Y., Jones G., Chen J., Li Z., Chang Q., Yang G., Frewer L.J.. 2022

[13]Combining novel technologies with interdisciplinary basic research to enhance horticultural crops. Jiang X., Zhang W., Fernie A.R., Wen W.. 2021

[14]Integrative Rna-And Mirna-Profile Analysis Reveals A. Likely Role Of B r And Auxin Signaling In Branch Angle Regulation Of B. Napus. Cheng, HT, Hao, MY, Wang, WX, Mei, DS, Wells, R, Liu, J, Wang, H, Sang, SF, Tang, M, Zhou, RJ, Chu, W, Fu, L, Hu, Q. 2017

[15]Abscisic Acid Represses Rice Lamina J.oint Inclination By Antagonizing B rassinosteroid Biosynthesis And Signaling. Li, QF, Lu, J, Zhou, Y, Wu, F, Tong, HN, Wang, JD, Yu, JW, Zhang, CQ, Fan, XL, Liu, QQ. 2019

[16]A Quantitative Proteomic Analysis Of B.rassinosteroid-Induced Protein Phosphorylation In R ice (Oryza Sativa L.). Hou, YX, Qiu, JH, Wang, YF, Li, ZY, Zhao, JA, Tong, XH, Lin, HY, Zhang, J. 2017

[17]Nitric Oxide As A Downstream S.ignaling Molecule In Brassinosteroid-Mediated V irus Susceptibility To Maize Chlorotic Mottle Virus In Maize. Zhou, Xueping,Zhou, Xueping,Cao, Ning,Zhan, Binhui. 2019

[18]Comparative Transcriptome Profiling Reveals That Brassinosteroid-Mediated Lignification Plays An Important Role In Garlic Adaption To Salt Stress. Kong, QS, Mostafa, HHA, Yang, WL, Wang, JL, Nuerawuti, M, Wang, Y, Song, JP, Zhang, XH, Ma, LC, Wang, HP, Li, XX. 2021

[19]GSK2 stabilizes OFP3 to suppress brassinosteroid responses in rice. . 2020

[20]Three Bnaiaa7 Homologs Are Involved I.n Auxin/Brassinosteroid-Mediated Plant Morphogenesis I n Rapeseed (Brassica Napus L.). Zheng, M, Hu, ML, Yang, HL, Tang, M, Zhang, L, Liu, HF, Li, XK, Liu, JL, Sun, XC, Fan, SH, Zhang, JF, Terzaghi, W, Pu, HM, Hua, W. 2019

作者其他论文 更多>>