Ehretia macrophylla fruit is a traditionally used but underutilized functional resource that is noted for its diverse phytochemical composition, which includes flavonoids and polyphenols. However, the systematic metabolic transformations that occur in the fruit during post-harvest storage—particularly those associated with its traditional processing into dark fruit tea—remain largely unknown, limiting efforts to optimize quality and processing strategies. In the study, to address this gap, we employed a widely targeted metabolomics approach based on ultra-performance liquid chromatography–tandem mass spectrometry (UPLC-MS/MS) to dynamically profile the fruit metabolome across four storage stages (T0, T4, T8, T12). A total of 1101 metabolites were putatively annotated, and day 8 (T8) emerged as a potential pronounced metabolic inflection point. From T8 onward, 30–40% of metabolites showed differential accumulation, characterized by a gradual rise in nutrition-relevant lipids, amino acids, and vitamins. In contrast, key antioxidant-related metabolites, including phenolics and flavonoids, increased transiently before T8 but declined sharply thereafter. These coordinated shifts correlated with an increased representation of lipid- and alkaloid-related metabolic pathways, whereas flavonoid-associated features showed a relative decline. Collectively, these findings provide insights into the biochemical processes potentially associated with fruit blackening and the marked decline in antioxidant capacity during traditional processing. Our study provides the first metabolic blueprint connecting traditional processing practices with phased metabolic remodeling, offering a scientific foundation for quality assessment and the development of informed post-harvest strategies for processing E. macrophylla fruit.
Momordica charantia
is an economically and pharmacologically important vegetable, with its medicinal value largely attributed to its diverse triterpenoid saponins. Although the decline of total saponin content during fruit development is well-documented, the precise metabolic profiles and the underlying molecula...
Jun-Miao Fan, Dong Lian, Yun-Fa Yao et al.· Frontiers in Plant Science· 0 citations
The temporal accumulation pattern and the underlying regulatory mechanisms of oxypaeoniflorin biosynthesis are elucidated, which provides a theoretical basis for the high‐value utilization of tree peony fruit pods and further studies on monoterpenoid glycoside biosynthesis.
Ting-Ting Zhou, Ding-Ding Zuo, Di Yang et al.· Physiologia Plantarum : An I...· 0 citations
A comparative metabolomic analysis of roots, stems, and leaves collected from the same population, season, and developmental stage using untargeted metabolomics combined with multivariate statistical methods reveals Gerbera piloselloides' organ-specific metabolism and guide rational medicinal and edible use.
Yan Li, Juan Xue, Yong-Jia Shu et al.· Natural Product Research· 0 citations
Cacao fruit maturation directly influences the chemical composition of tissues that are central to chocolate production and byproduct valorization, yet its lipid remodeling remains unexplored. Here, an untargeted UHPLC–Orbitrap–MS lipidomics workflow was used to map lipid profile changes in cacao seeds and cacao pod hu...
J. D. de Almeida, Daniel S. Trancoso, Eclair V. Filho et al.· Journal of Agricultural and...· 0 citations
Background: Medicinal–edible plants are abundant sources of natural bioactives and functional food precursors. Talinum paniculatum (Jacq.) Gaertn is a commonly utilized folk herb, but there is still a lack of systematic metabolomic research linking its organ-specific phytochemical variations to its medicinal and sensor...
Hai-Feng Wang, Da Li, Hao-Ran Xu et al.· Metabolites· 0 citations