EXPLORING THE CRITICAL ROLES OF EPIGENETICS IN CROP ADAPTATION AND RESILIENCE IN STRESS AND CLIMATE CHANGE

Main Article Content

Saba Farooq
Farah Naz
Samrin Gul
Abdul Latif Laghari
Mehar Un Nisa Narejo
Khalid Hussain Memon
Kashif Ali Kabir
Shahzad Ali
Sheikh Saddam
Ghulam Yasin Sheikh

Keywords

Crop, Epigenetics, DNA Methylation, Climate Change

Abstract

Food security has emerged as significant threats to humanity that need to be addressed and demand for new approaches for crop improvement, adaptation, and resilience such as epigenetic regulation. Plants are able to adjust to altering environmental situations because epigenetic processes, including DNA methylation, histone modifications, and non-coding RNA control, can affect and modulate gene expression by responding to environmental stimuli. Plants use epigenetic control as a critical mechanism for stress response and adaptation to climate change. This review paper has investigated the recent advancement and association between epigenetics and crop resilience, exploring the critical role of epigenetic modifications in stress adaptation, tolerance, and phenotypic plasticity. By understanding the role of epigenetics on crop adaptation and resilience, more sustainable and productive agricultural systems can be created to overcome worldwide food security. Future research in this field will continue to reveal the insightful and valuable complexities of epigenetic regulation and its potential applications in crop improvement and resilience and this will pave the way for the exploitation of epigenetic variation in crop productivity and breeding.

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