Aug 2026· Cell Reports· Vol 45 8, pp.
117867
· 0 citations· 46 references
Medicine
TL;DR
Functional analysis of BnaTT3, a proteome-prioritized seed hormone-associated candidate, supports its role in coordinating seed development and phytohormone homeostasis and presents a phytohormone atlas resource, identifying their key role in tissue specificity.
Abstract
Rapeseed is a globally important oil crop cultivated worldwide, but its proteome remains uncharacterized. Here, we established a quantitative atlas of the proteome and phosphoproteome spanning 24 major tissues. Using Orbitrap Astral MS instrument, we quantified 28,217 proteins and 13,455 phosphoproteins (covering over 60,000 phosphorylation sites) during rapeseed vegetative and reproductive stages, representing the most extensive proteomic and phosphoproteomic dataset for rapeseed to date. Tissue-specific protein expression highlights functional specificity with significant variations between transcript and protein levels across tissues. We also present a phytohormone atlas resource, identifying their key role in tissue specificity. We further integrated phytohormone abundance with transcriptomic, proteomic, and phosphorylation-site profiles using weighted gene co-expression network analysis (WGCNA), revealing partially distinct hormone-associated modules across molecular layers. Functional analysis of BnaTT3, a proteome-prioritized seed hormone-associated candidate, supports its role in coordinating seed development and phytohormone homeostasis. These comprehensive multi-omics resources advance our understanding of rapeseed biology and provide a valuable resource for crop improvement.
DIA-MS findings provide a temporal proteomic and biochemical framework for understanding genotype-associated differences in oil accumulation and identify candidate metabolic networks for functional studies.
Muhammad Imran, Zhen Zhao, Ruo-Yu Zhou et al.· Plant physiology and biochem...· 0 citations
Taraxacum kok-saghyz
(TKS) accumulates high-added-value compounds such as natural rubber (NR) and inulin, making it a promising alternative industrial crop. However, the tissue-specific regulation of NR biosynthesis (NRB) in TKS still requires further investigation. Here, we integrated transcriptomic and prote...
It is established that age-node differentiation reflects fundamental metabolic reprogramming, supporting a node-targeted utilization strategy encompassing HJ3 for polysaccharide-based products, HJ4 for antioxidant applications, HJ1 for saponin extraction, and HJ2 for bulk materials, while providing both mechanistic ins...
Chun-Ming Li, Xiao-Yu Su, Ya-Ling Yang et al.· International Journal of Mol...· 0 citations
This multiomics study provides insights into potential molecular regulatory processes underlying pecan seed germination and offers a theoretical basis for future functional studies, seedling cultivation, and breeding improvement.
Ying-Zhou Tang, Li-Wen Li, De-Zong Sui et al.· J. Amer. Soc. Hort. Sci.· 0 citations
A comparative proteomic analysis of the wheat cultivar Xinmai 45 and its parental lines, Jimai 20 and Xinmai 26, showed that the MAPK signaling and phenylpropanoid biosynthesis pathways were uniquely enriched in Xinmai 45 vs. Jimai 20 (paternal), suggesting enhanced stress signaling and defense priming.
This study provides a comprehensive multi‑omics resource and a descriptive framework for understanding transcriptional and metabolic dynamics during sesame floral development, and identifies candidate pathways and genes that may serve as targets for future functional validation and molecular breeding.
Qi-Yuan An, Hongsen Cheng, Huijie Sun et al.· Frontiers in Plant Science· 0 citations
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