Rahmati Ishka Maryam, Julkowska Magdalena
Boyce Thompson Institute for Plant Research, Ithaca, New York, 14853, USA.
F1000Res. 2023 Oct 2;12:1257. doi: 10.12688/f1000research.140649.1. eCollection 2023.
Plant architecture develops post-embryonically and emerges from a dialogue between the developmental signals and environmental cues. Length and branching of the vegetative and reproductive tissues were the focus of improvement of plant performance from the early days of plant breeding. Current breeding priorities are changing, as we need to prioritize plant productivity under increasingly challenging environmental conditions. While it has been widely recognized that plant architecture changes in response to the environment, its contribution to plant productivity in the changing climate remains to be fully explored. This review will summarize prior discoveries of genetic control of plant architecture traits and their effect on plant performance under environmental stress. We review new tools in phenotyping that will guide future discoveries of genes contributing to plant architecture, its plasticity, and its contributions to stress resilience. Subsequently, we provide a perspective into how integrating the study of new species, modern phenotyping techniques, and modeling can lead to discovering new genetic targets underlying the plasticity of plant architecture and stress resilience. Altogether, this review provides a new perspective on the plasticity of plant architecture and how it can be harnessed for increased performance under environmental stress.
植物形态建成在胚胎发育后发生,源于发育信号与环境线索之间的相互作用。自植物育种早期以来,营养组织和生殖组织的长度及分支情况一直是改善植物性能的重点。当前的育种重点正在发生变化,因为我们需要在日益严峻的环境条件下优先提高植物生产力。虽然人们普遍认识到植物形态会随环境变化,但在气候变化的情况下,其对植物生产力的贡献仍有待充分探索。本综述将总结先前关于植物形态特征遗传控制及其在环境胁迫下对植物性能影响的发现。我们还将回顾表型分析的新工具,这些工具将指导未来对影响植物形态、其可塑性以及对胁迫恢复力有贡献的基因的发现。随后,我们将探讨如何整合新物种研究、现代表型分析技术和建模,以发现植物形态可塑性和胁迫恢复力背后的新遗传靶点。总之,本综述为植物形态可塑性以及如何利用它来提高环境胁迫下的植物性能提供了新视角。