Harness plant metabolites to build climate-resilient agricultural systems

Climate stress threatens crop productivity through drought, heat, soil degradation, and biodiversity loss. Phytochemistry and Climate-Resilient Agriculture examines how plant-derived metabolites can enhance crop resilience, restore soil health, and support sustainable farming under these pressures. Edited by a team of researchers spanning agronomy, molecular biology, and plant stress physiology, this volume provides an interdisciplinary framework for integrating phytochemical research into climate-smart practice.

Coverage extends from foundational plant metabolite responses under abiotic stress to applied strategies including phytoremediation of degraded soils, phytochemical-based carbon sequestration, and biological pest management. The text addresses agroforestry systems, marine and algal sources, AI-driven predictive modeling, and genomic engineering for resilient crop varieties. Case studies demonstrate how phytochemicals reduce synthetic input reliance and improve water use efficiency.

The book also covers:

• Economic viability assessments and global market potential analyses for scaling phytochemical innovations from laboratory research to commercial agricultural practice
• Strategies for supporting pollinator health and biodiversity conservation through targeted application of plant-derived secondary metabolites in farming systems
• Integration of computational modeling tools and bioengineering approaches for predicting and optimizing phytochemical performance under variable climate scenarios
• Policy pathways and regulatory frameworks that facilitate adoption of phytochemistry-based sustainable agriculture practices across different governance contexts worldwide
• Water conservation techniques leveraging phytochemical properties to enhance plant water retention and drought tolerance in water-scarce agricultural regions

Designed for agricultural scientists, agronomists, and researchers working on sustainable farming and crop resilience, this volume also serves policymakers developing climate adaptation strategies and food security organizations advancing nutrition and sustainability initiatives. It provides an application-focused guide to integrating plant metabolite research into resilient agricultural practice.

Yamin Bibi is in the Department of Botany at Rawalpindi Women University, Pakistan. An academic and researcher in pharmaceutical sciences, her work focuses on phytochemistry and natural product research, connecting traditional phytochemical knowledge with modern technology to advance contemporary drug discovery.

Kulsoom Zahara is in the Department of Botany at PMAS-Arid Agriculture University Rawalpindi, Pakistan. Her expertise spans phytochemistry, pharmacognosy, and natural product research, exploring the therapeutic potential of plant-based compounds by integrating traditional knowledge with modern technologies to address drug discovery challenges.

Abdul Qayyum is a Professor in the Department of Agronomy at The University of Haripur, Pakistan. His research encompasses plant physiology, stress tolerance, agronomic trait improvement, plant nutrition, and the application of nanotechnology in cereal crops for improved agricultural outcomes.

Sajid Fiaz is at the Institute of Molecular Biology and Biotechnology at The University of Lahore, Pakistan. His research includes developing high-quality rice through genome editing and marker-assisted selection, applying multi-omics approaches for improving plant traits under diverse agro-climatic conditions.

Matthew A. Jenks is in the School of Plant Sciences, College of Agriculture and Life Sciences, at The University of Arizona, USA. His research focuses on whole-plant and cellular mechanisms of plant adaptability to biotic and abiotic environmental stress, including molecular genetics and metabolism of the plant cuticle.