Tea (Camellia sinensis) is one of the most widely consumed beverages worldwide and a crop of enduring cultural, economic, and scientific significance. Although many studies has examined cultivation and trade, no previous review has integrated tea’s long-term domestication history with recent advances in precision agriculture and digital technologies. This review addresses that gap by providing a multidisciplinary synthesis that links the historical, biological, agroecological, and technological dimensions of tea production. This review demonstrates that tea productivity and quality are strongly influenced by interactions among genotype, environment, and management practices, while climate variability increasingly disrupts these relationships. At the same time, precision agriculture technologies offer substantial potential to improve disease detection, optimise resource use, and support data-driven decision-making. However, their adoption remains uneven because of high implementation costs, limited accessibility for smallholder farming systems, and challenges related to data infrastructure. Based on this synthesis, we propose that future research and policy should prioritise: (i) the region-specific integration of digital technologies with traditional cultivation practices; (ii) the development of low-cost, scalable technologies suitable for smallholders; and (iii) climate-resilient cultivation strategies adapted to shifting agroecological conditions. These targeted interventions are essential for improving productivity, sustainability, and resilience across the global tea industry.
Muhammet Yıldız, Mehmet Ali Mert, Sheikh Mansoor· Frontiers in Plant Science· 1 citation
Phyto-oxylipins, oxidized derivatives of unsaturated fatty acids, serve as crucial mediators in plant responses to biotic and abiotic stresses, which are becoming increasingly frequent and severe under changing climatic conditions. These signaling molecules, produced enzymatically or spontaneously, orchestrate a wide range of physiological and molecular responses that enhance plant resilience. By scavenging reactive oxygen species (ROS) and upregulating antioxidant enzymes, phyto-oxylipins help mitigate oxidative damage, thus preserving cellular integrity and sustaining growth under environmental stress. Additionally, they interact intricately with key phytohormones such as jasmonic acid (JA), abscisic acid, and salicylic acid (SA), forming a dynamic hormonal network that regulates stress-responsive genes and adaptive processes. Beyond stress mitigation, phyto-oxylipins promote wound healing, programmed cell death, and cell wall reinforcement, essential for maintaining plant structural integrity. Recognizing these molecules as central regulators of stress adaptation offers promising avenues for developing climate-resilient crops. This review synthesizes current insights into the molecular and physiological roles of phyto-oxylipins, emphasizing their potential in integrating plant defense mechanisms to enhance crop productivity amid abiotic and biotic challenges.
Sheikh Mansoor, Nabila Bettache, M. Altaf et al.· Physiologia Plantarum : An I...· 0 citations