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The Circadian Clock Gene Is Involved in the Regulation of Glucosinolates in Chinese Cabbage

Overview
Journal Genes (Basel)
Publisher MDPI
Date 2021 Nov 27
PMID 34828270
Citations 4
Authors
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Abstract

Circadian clocks integrate environmental cues with endogenous signals to coordinate physiological outputs. Clock genes in plants are involved in many physiological and developmental processes, such as photosynthesis, stomata opening, stem elongation, light signaling, and floral induction. Many family plants, including Chinese cabbage ( ssp. ), produce a unique glucosinolate (GSL) secondary metabolite, which enhances plant protection, facilitates the design of functional foods, and has potential medical applications (e.g., as antidiabetic and anticancer agents). The levels of GSLs change diurnally, suggesting a connection to the circadian clock system. We investigated whether circadian clock genes affect the biosynthesis of GSLs in using RNAi-mediated suppressed transgenic   homolog ( knockdown; hereafter GK1) Chinese cabbage. plays an important role in the plant circadian clock system and is related to various developmental and metabolic processes. Using a validated GK1 transgenic line, we performed RNA sequencing and high-performance liquid chromatography analyses. The transcript levels of many GSL pathway genes were significantly altered in GK1 transgenic plants. In addition, GSL contents were substantially reduced in GK1 transgenic plants. We report that the circadian clock gene is required for the biosynthesis of GSLs in Chinese cabbage plants.

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