Hosseiniyan Khatibi Seyed Mahdi, Dimaano Niña Gracel, Veliz Esteban, Sundaresan Venkatesan, Ali Jauhar
International Rice Research Institute, Los Baños, Laguna, Philippines.
International Rice Research Institute, Los Baños, Laguna, Philippines; College of Agriculture and Food Science, University of the Philippines Los Baños, Los Baños, Laguna, Philippines.
Plant Commun. 2024 Dec 9;5(12):101078. doi: 10.1016/j.xplc.2024.101078. Epub 2024 Sep 3.
The future of agriculture is uncertain under the current climate change scenario. Climate change directly and indirectly affects the biotic and abiotic elements that control agroecosystems, jeopardizing the safety of the world's food supply. A new area that focuses on characterizing the phytobiome is emerging. The phytobiome comprises plants and their immediate surroundings, involving numerous interdependent microscopic and macroscopic organisms that affect the health and productivity of plants. Phytobiome studies primarily focus on the microbial communities associated with plants, which are referred to as the plant microbiome. The development of high-throughput sequencing technologies over the past 10 years has dramatically advanced our understanding of the structure, functionality, and dynamics of the phytobiome; however, comprehensive methods for using this knowledge are lacking, particularly for major crops such as rice. Considering the impact of rice production on world food security, gaining fresh perspectives on the interdependent and interrelated components of the rice phytobiome could enhance rice production and crop health, sustain rice ecosystem function, and combat the effects of climate change. Our review re-conceptualizes the complex dynamics of the microscopic and macroscopic components in the rice phytobiome as influenced by human interventions and changing environmental conditions driven by climate change. We also discuss interdisciplinary and systematic approaches to decipher and reprogram the sophisticated interactions in the rice phytobiome using novel strategies and cutting-edge technology. Merging the gigantic datasets and complex information on the rice phytobiome and their application in the context of regenerative agriculture could lead to sustainable rice farming practices that are resilient to the impacts of climate change.
在当前的气候变化情景下,农业的未来充满不确定性。气候变化直接或间接地影响着控制农业生态系统的生物和非生物要素,危及全球粮食供应的安全。一个专注于描述植物微生物群落的新领域正在兴起。植物微生物群落包括植物及其直接周围环境,涉及众多相互依存的微观和宏观生物,这些生物会影响植物的健康和生产力。植物微生物群落研究主要聚焦于与植物相关的微生物群落,即植物微生物组。在过去十年中,高通量测序技术的发展极大地推动了我们对植物微生物群落的结构、功能和动态的理解;然而,目前缺乏利用这些知识的综合方法,尤其是对于水稻等主要作物。考虑到水稻生产对世界粮食安全的影响,从水稻植物微生物群落相互依存和相互关联的组成部分中获得新的见解,有助于提高水稻产量和作物健康水平,维持水稻生态系统功能,并应对气候变化的影响。我们的综述重新审视了受人类干预和气候变化驱动的环境条件变化影响的水稻植物微生物群落中微观和宏观组成部分的复杂动态。我们还讨论了跨学科和系统的方法,以利用新策略和前沿技术来解读和重新编程水稻植物微生物群落中复杂的相互作用。整合关于水稻植物微生物群落的庞大数据集和复杂信息,并将其应用于再生农业背景下,可能会带来对气候变化影响具有韧性的可持续水稻种植实践。