Plant-Induced Systemic Resistance: Mechanisms and Applications Against Biotic and Abiotic Stressors examines how intrinsic defense signaling and state-of-the-art biotechnologies can fortify crops while reducing reliance on chemical inputs. This rigorous treatment unpacks the biochemical circuitry of induced immunity, the networks coordinating defense, and the innovative molecular biology tools that empower durable protection under a variety of stress triggers. Against the backdrop of rising pest pressures, evolving resistance patterns, and environmental concerns, it presents a forward-looking framework for integrating host defenses within comprehensive crop protection initiatives.
This volume traces a clear trajectory from foundational concepts to precision management solutions, delivering data-driven methodologies, decision support tools, and scalable practices for sustainable agriculture, enriched by real-world case studies that illustrate adoption across research, extension, and industry contexts. Governance, regulatory considerations, and societal implications are woven throughout to ensure responsible innovation.
Bridging lab-derived knowledge with field-ready interventions, this essential resource opens avenues for interdisciplinary collaboration to bolster plant resilience against various biotic and abiotic stressors, expanding the toolkit for integrated crop protection.
- Fosters inclusive cross-sector partnerships by establishing formal feedback loops, co-designed field pilots, and adaptable guidelines that accelerate learning and practical adoption.
- Showcases real-world case studies across diverse agroecosystems, detailing how defense-priming concepts were implemented in practice, the outcomes achieved, and the metrics used to evaluate success.
- Covers gene-silencing techniques and genomics-guided approaches, outlining selection criteria, alignment pathways with breeding and management programs, and safety/regulatory practicalities.
