Genome-wide characterization of the PHY gene family in octoploid strawberry reveals the critical role of FxaPHY15 in far-red light signaling and fruit ripening

Phytochrome (PHY) genes are crucial for the appropriate growth, development, and environmental adaptation of plants. Nevertheless, the composition of the PHY gene family in octoploid strawberry and its underlying light - signaling mechanisms remain unclear. This study identified 18 FxaPHY members distributed across the subgenomes, categorized into four distinct evolutionary clades. Notably, FxaPHY15 emerged as a key candidate due to its profound responsiveness to far-red (FR) light and its specific transcriptional peak during the fruit turning-color transition. Subcellular assays and protein interaction networks further confirmed that FxaPHY15 localizes to the nucleus and forms a high-confidence regulatory module with PIF3 (phytochrome-interacting factors 3), potentially orchestrating the transition from vegetative growth to fruit maturation. In summary, this study provides the first comprehensive overview of the PHY gene family in octoploid strawberry and establishes FxaPHY15 as a potential important candidate gene mediating far-red light responses and fruit development, laying the foundation for light signal transduction research in strawberry.

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Publication Details

Journal
BMC Plant Biology
Published
2026-04-17
DOI
https://doi.org/10.1186/s12870-026-08649-w
Primary Topic
Light effects on plants
Type
article
Field-Weighted Citation Impact
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article

Genome-wide characterization of the PHY gene family in octoploid strawberry reveals the critical role of FxaPHY15 in far-red light signaling and fruit ripening

Hongquan Shang, Gaopeng Yuan, Man Shi, Yanhong Song et al.
BMC Plant Biology
Light effects on plants
article

Genome-wide characterization of the PHY gene family in octoploid strawberry reveals the critical role of FxaPHY15 in far-red light signaling and fruit ripening

Hongquan Shang, Gaopeng Yuan, Man Shi, Yanhong Song, Naixi Feng, Yan Wang, Bin Wang, Shanshan He, Changcheng Lou
article en

Abstract

Phytochrome (PHY) genes are crucial for the appropriate growth, development, and environmental adaptation of plants. Nevertheless, the composition of the PHY gene family in octoploid strawberry and its underlying light - signaling mechanisms remain unclear. This study identified 18 FxaPHY members distributed across the subgenomes, categorized into four distinct evolutionary clades. Notably, FxaPHY15 emerged as a key candidate due to its profound responsiveness to far-red (FR) light and its specific transcriptional peak during the fruit turning-color transition. Subcellular assays and protein interaction networks further confirmed that FxaPHY15 localizes to the nucleus and forms a high-confidence regulatory module with PIF3 (phytochrome-interacting factors 3), potentially orchestrating the transition from vegetative growth to fruit maturation. In summary, this study provides the first comprehensive overview of the PHY gene family in octoploid strawberry and establishes FxaPHY15 as a potential important candidate gene mediating far-red light responses and fruit development, laying the foundation for light signal transduction research in strawberry.

BMC Plant Biology
Henan Academy of Agricultural Sciences (CN), Zhengzhou Fruit Research Institute (CN), Chinese Academy of Agricultural Sciences (CN)
Life in Land
Openalex Percentile: Top 7%
Light effects on plants
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