Oct 2026· Veterinary Sciences· Vol 13, pp. 1073· 0 citations· 30 references
Medicine
TL;DR
It is shown that gill and skin-mucus microbiota undergo distinct patterns of growth-associated reorganization rather than a uniform developmental process.
Abstract
Simple Summary Fish gills and skin mucus are continuously exposed to surrounding water, but they provide different biological surfaces for microbial colonization. We examined the gill and skin-mucus microbiota of cultured Decapterus maruadsi at three successive growth stages from the same cohort. The two mucosal habitats changed differently during growth. In the gill, a small group of microorganisms that occurred widely across the complete dataset contributed an increasingly large fraction of community abundance from the early to middle stage and remained important at the late stage. Skin mucus followed a different, non-linear pattern: the middle-stage community was strongly dominated by microorganisms with intermediate occurrence frequencies, before high-prevalence microorganisms again became abundant at the late stage. Broad bacterial groups remained similar among samples, but extensive differences emerged at the genus and amplicon sequence variant (ASV) levels. These findings show that gill and skin-mucus microbiota undergo distinct patterns of growth-associated reorganization rather than a uniform developmental process.
External mucosal surfaces form major interfaces between fish and the aquatic environment, yet their microbial succession during host growth remains incompletely resolved. We characterized the gill and skin mucus microbiota of cultured Larimichthys crocea at three successive body-size stages (5–8 g, 39–46 g, and 160–162...
Gut microbiome development during fish growth involves not only taxonomic turnover but also changes in the persistence and ecological dominance of microbial members. Here, we characterized the gut microbiota of D. maruadsi across three successive growth-associated body-size groups: the early-growth group (BLEGC; 4.98–6...
Xiao-Ping Wu, Jun-Hong Liu, Jia-Li He et al.· Veterinary Sciences· 0 citations
Simple Summary The intestinal microbiota of Larimichthys crocea changes as fish grow, but these changes do not necessarily follow a simple progression toward a more stable community. In this study, fish from the same cultured population were maintained in the same culture pond and sampled successively at three body-siz...
Larviculture is critical to the production of Penaeus vannamei, the world’s leading farmed shrimp species, but remains constrained by erratic postlarval survival. Although early-life microbiome establishment is increasingly recognized as essential for larval health and survival, microbiome-based hatchery interventions...
The results of this study show that the gill microbiome of the mussel Mytilus galloprovincialis differs from the microbial community in the surrounding seawater and sediment, exhibits temporal dynamics, and contains both resident and transient microbial taxa.
M. Korlević, Marsej Markovski, D. Kapetanović et al.· Microbial Ecology· 0 citations
Aquaculture system design alters aquatic habitats and influences host-associated microbiota, but its effects on gut taxonomic and functional organization remain poorly understood.
Here, we compared Acrossocheilus fasciatus (a freshwater cyprinid) cultured under four representative systems (high-level ponds...
Bin-Liang Wang, Wen-Hui Li, Ye Yang et al.· North American Journal of Aq...· 0 citations
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