Silicon‐Mediated Drought Tolerance: An Enigmatic Perspective in the Root–Soil Interphase

Author:

Bardhan Kirti12ORCID,Gayan Anjuma3ORCID,Padukkage Duwini4ORCID,Datta Avishek5ORCID,Chen Yinglong6ORCID,Penna Suprasanna7

Affiliation:

1. Department of Plant and Soil Science Texas Tech University Lubbock Texas USA

2. Department of Basic Sciences and Humanities Navsari Agricultural University Navsari Gujarat India

3. Department of Soil Science Assam Agricultural University Jorhat Assam India

4. Research, Development and Special Projects Division Mahaweli Authority of Sri Lanka Colombo Sri Lanka

5. Department of Food, Agriculture and Bioresources, School of Environment, Resources and Development Asian Institute of Technology Klong Luang Pathum Thani Thailand

6. The UWA Institute of Agriculture and School of Agriculture and Environment The University of Western Australia Perth Western Australia Australia

7. Amity Center for Nuclear Biotechnology Amity Institute of Biotechnology, Amity University Mumbai Mumbai Maharashtra India

Abstract

ABSTRACTDrought is one of the major yield‐limiting factors under climatic adversaries. The positive role of silicon (Si) in drought tolerance of plants has unfolded a new avenue for enhancing crop productivity through better Si use efficiency. It is hence interesting to understand the mechanistic insights pertaining to its beneficial roles under drought stress conditions. Higher plants sense drought stress via roots which, regulate aboveground plant growth under stress. Cellular and molecular modulations occurring at the root and soil interphases influence the survival and growth of plants under drought stress; therefore, it is intriguing to know how Si influences the soil–root interphase and how this interaction augments overall plant growth under drought. In this review, we summarised the roles of Si in the root systems, rhizosphere and their interactions that could improve plant's growth and development under drought conditions. We have discussed the direct and indirect effects of Si‐induced belowground changes on plant roots, soil physical, chemical and biological properties, and their mutual interactions in eliciting defence signalling, including hormone signalling pathways. A mechanistic model of Si‐induced beneficial effects in water‐limited environments is suggested, which could help improve the management of rainfed croplands through Si fertilisation.

Funder

Australian Research Council

Publisher

Wiley

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