TY - JOUR
T1 - Transcriptional Regulatory Networks Oscillate Seasonal Plasticity of Fruit Metabolism in Melon
AU - Gong, Zihui
AU - Zhang, Jiejing
AU - Yang, Xiaodong
AU - Deng, Guancong
AU - Sun, Ji
AU - Xia, Yuelin
AU - Hu, Zhongyuan
AU - Zhang, Mingfang
AU - Yang, Jinghua
N1 - Publisher Copyright:
© 2024 by the authors.
PY - 2024/9
Y1 - 2024/9
N2 - Environmental cues profoundly influence the developmental processes of plants that evolve to produce specific phenotypes. However, the developmental plasticity in response to seasonal changes, particularly temperature and day length, has not been fully understood in fruit development and quality. To explore the mechanism by which the transcriptional network adapts to external environmental changes by regulating metabolism during the development of melon fruits, this study selected the fruits grown under spring and fall conditions and focused on specific phenylpropanoid pathway metabolites, including phenolic acids, lignin, and flavonoids. Significant changes in these compounds result in noticeable differences in fruit quality such as texture, flavor, and color, which are of utmost importance to consumers. Employing co-expression analysis complemented by machine learning, we identified hub genes and pathways governing the metabolic changes, highlighting the influence of temperature and photoperiod cues in mediating the transcriptional regulatory networks. These results provide valuable insights into how fruits adapt to seasonal variability, and drive us to innovate broadly adaptable melon cultivars poised for improved climate resilience in the future.
AB - Environmental cues profoundly influence the developmental processes of plants that evolve to produce specific phenotypes. However, the developmental plasticity in response to seasonal changes, particularly temperature and day length, has not been fully understood in fruit development and quality. To explore the mechanism by which the transcriptional network adapts to external environmental changes by regulating metabolism during the development of melon fruits, this study selected the fruits grown under spring and fall conditions and focused on specific phenylpropanoid pathway metabolites, including phenolic acids, lignin, and flavonoids. Significant changes in these compounds result in noticeable differences in fruit quality such as texture, flavor, and color, which are of utmost importance to consumers. Employing co-expression analysis complemented by machine learning, we identified hub genes and pathways governing the metabolic changes, highlighting the influence of temperature and photoperiod cues in mediating the transcriptional regulatory networks. These results provide valuable insights into how fruits adapt to seasonal variability, and drive us to innovate broadly adaptable melon cultivars poised for improved climate resilience in the future.
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U2 - 10.3390/horticulturae10090993
DO - 10.3390/horticulturae10090993
M3 - Article
AN - SCOPUS:85205069293
SN - 2311-7524
VL - 10
JO - Horticulturae
JF - Horticulturae
IS - 9
M1 - 993
ER -