Aug 2026· Euphytica· Vol 222· 0 citations· 77 references
TL;DR
Key genes in the mevalonate (MVA) pathway were upregulated in roots, facilitating metabolic crosstalk with the methylerythritol-phosphate pathway and enhancing terpenoid skeleton synthesis.
This work provides a foundational resource for C. diurnum for future pharmaceutical and biotechnological applications, enables the discovery and functional characterization of candidate genes, supports metabolic engineering strategies to enhance valuable terpenoids, and offers avenues to mitigate toxic alkaloid accumul...
Vandana Mathur, Ramawatar Nagar, Maniraj Rathinam et al.· Physiology and Molecular Bio...· 0 citations
It is suggested that sucrose transport to sink organs may be facilitated by increased expression of the bidirectional sugar transporter SWEET14, and sucrose may be hydrolyzed by β-fructofuranosidase, potentially providing energy for plant growth on one hand and contributing to fructose accumulation on the other.
Yu Wang, Hai-Yang Zhao, Wen-Jie He et al.· Frontiers in Plant Science· 0 citations
The molecular basis of terpenoid diversity in MF is revealed, and theoretical references for germplasm discrimination, quality evaluation and genetic improvement of medicinal magnolia resources are provided.
Rui Ma, Hong-Dan Liu, Wei-Meng Feng et al.· Frontiers in Plant Science· 0 citations
Findings reveal tissue-specific metabolite accumulation and key genes involved in MIA biosynthesis in N. cadamba that provide valuable insights into specialized metabolism and establish a foundation for future metabolic engineering and functional genomics studies.
Divya Selvakumar, G. Ramalingam, Suganya Balan et al.· Molecular Biology Reports· 0 citations
These findings collectively support flavanone 3-hydroxylase (F3H) as a candidate regulatory node governing organ-specific flavonoid partitioning in Rhododendron yedoense var.
These findings provide the first comprehensive evidence that alkaloid metabolism, particularly the isoquinoline alkaloid pathway, are transcriptionally and metabolically reprogrammed during blister blight infection, suggesting a potential role in tea’s defense against this pathogen.
Yanglongyu Chen, Ping Li, Yu-Qing Ma et al.· Frontiers in Plant Science· 0 citations
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