Can smart nutrient applications optimize the plant's hidden half to improve drought resistance?

营养物 生物 抗性(生态学) 农学 根系 农业 营养管理 词根(语言学) 表型可塑性 作物 耐旱性 环境科学 农业工程 生态学 工程类 哲学 语言学
作者
Kirti Bardhan,Larry M. York,Mirza Hasanuzzaman,Vipulkumar Parekh,Suchismita Jena,Mansi N. Pandya
出处
期刊:Physiologia Plantarum [Wiley]
卷期号:172 (2): 1007-1015 被引量:17
标识
DOI:10.1111/ppl.13332
摘要

Abstract Global agriculture is challenged with achieving sustainable food security while the climate changes and the threat of drought increases. Much of the research attention has focused on above‐ground plant responses with an aim to improve drought resistance. The hidden half, that is, the root system belowground, is receiving increasing attention as the interface of the plant with the soil. Because roots are a sensing organ for nutrients and moisture, we speculate that crop root system traits can be managed using smart nutrient application in order to increase drought resistance. Roots are known to be influenced both by their underlying genetics and also by responses to the environment, termed root plasticity. Though very little is known about the combined effect of water and nutrients on root plasticity, we explore the possibilities of root system manipulation by nutrient application. We compare the effects of different water or nutrient levels on root plasticity and its genetic regulation, with a focus on how this may affect drought resistance. We propose four primary mechanisms through which smart nutrient management can optimize root traits for drought resistance: (1) overall plant vigor, (2) increased root allocation, (3) influence specific root traits, and (4) use smart placement and timing to encourage deep rooting. In the longer term, we envision that beneficial root traits, including plasticity, could be bred into efficient varieties and combined with advanced precision management of water and nutrients to achieve agricultural sustainability.
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