RIKEN Center for Sustainable Resource Science.
Research Institute for Agricultural and Life Sciences, Tokyo University of Agriculture.
Proc Jpn Acad Ser B Phys Biol Sci. 2022;98(8):470-492. doi: 10.2183/pjab.98.024.
Land plants have developed sophisticated systems to cope with severe stressful environmental conditions during evolution. Plants have complex molecular systems to respond and adapt to abiotic stress, including drought, cold, and heat stress. Since 1989, we have been working to understand the complex molecular mechanisms of plant responses to severe environmental stress conditions based on functional genomics approaches with Arabidopsis thaliana as a model plant. We focused on the function of drought-inducible genes and the regulation of their stress-inducible transcription, perception and cellular signal transduction of stress signals to describe plant stress responses and adaptation at the molecular and cellular levels. We have identified key genes and factors in the regulation of complex responses and tolerance of plants in response to dehydration and temperature stresses. In this review article, we describe our 30-year experience in research and development based on functional genomics to understand sophisticated systems in plant response and adaptation to environmental stress conditions.
陆生植物在进化过程中发展出了复杂的系统来应对严峻的环境胁迫条件。植物具有复杂的分子系统来响应和适应非生物胁迫,包括干旱、寒冷和热胁迫。自 1989 年以来,我们一直致力于通过以拟南芥为模式植物的功能基因组学方法来理解植物对严峻环境胁迫条件的复杂分子机制。我们专注于干旱诱导基因的功能以及其胁迫诱导转录的调控、胁迫信号的感知和细胞信号转导,以描述植物在分子和细胞水平上的应激反应和适应。我们已经鉴定出在植物对脱水和温度胁迫的复杂反应和耐受调节中的关键基因和因子。在这篇综述文章中,我们描述了我们基于功能基因组学的 30 年研究和开发经验,以了解植物对环境胁迫条件的响应和适应的复杂系统。