Billah Masum, Aktar Shirin, Brestic Marian, Zivcak Marek, Khaldun Abul Bashar Mohammad, Uddin Md Shalim, Bagum Shamim Ara, Yang Xinghong, Skalicky Milan, Mehari Teame Gereziher, Maitra Sagar, Hossain Akbar
Institute of Cotton Research, Chinese Academy of Agricultural Sciences, Anyang 455000, China.
Institute of Tea Research, Chinese Academy of Agricultural Sciences, South Meiling Road, Hangzhou 310008, China.
Plants (Basel). 2021 Sep 14;10(9):1910. doi: 10.3390/plants10091910.
Drought and salinity are the major environmental abiotic stresses that negatively impact crop development and yield. To improve yields under abiotic stress conditions, drought- and salinity-tolerant crops are key to support world crop production and mitigate the demand of the growing world population. Nevertheless, plant responses to abiotic stresses are highly complex and controlled by networks of genetic and ecological factors that are the main targets of crop breeding programs. Several genomics strategies are employed to improve crop productivity under abiotic stress conditions, but traditional techniques are not sufficient to prevent stress-related losses in productivity. Within the last decade, modern genomics studies have advanced our capabilities of improving crop genetics, especially those traits relevant to abiotic stress management. This review provided updated and comprehensive knowledge concerning all possible combinations of advanced genomics tools and the gene regulatory network of reactive oxygen species homeostasis for the appropriate planning of future breeding programs, which will assist sustainable crop production under salinity and drought conditions.
干旱和盐度是对作物发育和产量产生负面影响的主要环境非生物胁迫因素。为了在非生物胁迫条件下提高产量,耐旱和耐盐作物是支持全球作物生产和缓解不断增长的世界人口需求的关键。然而,植物对非生物胁迫的反应非常复杂,受遗传和生态因素网络的控制,而这些因素是作物育种计划的主要目标。人们采用了几种基因组学策略来提高非生物胁迫条件下的作物生产力,但传统技术不足以防止与胁迫相关的生产力损失。在过去十年中,现代基因组学研究提高了我们改良作物遗传学的能力,特别是那些与非生物胁迫管理相关的性状。本综述提供了有关先进基因组学工具的所有可能组合以及活性氧稳态基因调控网络的最新和全面知识,以便为未来育种计划进行适当规划,这将有助于在盐度和干旱条件下实现作物的可持续生产。