Frontiers in Plant Science · 2023 · 26 citations · 55 references
Life SciencesPlant BiologyPlant SciencesPlant Developmental BiologyPlant Molecular BiologyPlant PhysiologyBud DormancyPlant Hormone SignalingPlant HormonesPlant MetabolismPlant Transcriptional RegulationPlant TranscriptomicsBud OverwinteringCarbohydrate Metabolism During DormancyHormone-responsive TranscriptomicsMetabolic Interaction NetworksOxidative Stress Response PathwaysOxidative Stress Signaling PathwaysPlant Hormone MetabolismStress-induced Metabolism
The sprouting process of tea buds is an essential determinant of tea quality and taste, thus profoundly impacting the tea industry. Buds spring sprouting is also a crucial biological process adapting to external environment for tea plants and regulated by complex transcriptional and metabolic networks. This study aimed to investigate the molecular basis of bud sprouting in tea plants firstly based on the comparisons of metabolic and transcriptional profiles of buds at different developmental stages. Results notably highlighted several essential processes involved in bud sprouting regulation, including the interaction of plant hormones, glucose metabolism, and reactive oxygen species scavenging. Particularly prior to bud sprouting, the accumulation of soluble sugar reserves and moderate oxidative stress may have served as crucial components facilitating the transition from dormancy to active growth in buds. Following the onset of sprouting, zeatin served as the central component in a multifaceted regulatory mechanism of plant hormones that activates a range of growth-related factors, ultimately leading to the promotion of bud growth. This process was accompanied by significant carbohydrate consumption. Moreover, related key genes and metabolites were further verified during the entire overwintering bud development or sprouting processes. A schematic diagram involving the regulatory mechanism of bud sprouting was ultimately proposed, which provides fundamental insights into the complex interactions involved in tea buds.
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