Morphological and ecological characterization of the invasive species Daphnia lumholtzi (Crustacea: Cladocera) in a tropical reservoir in southern Mexico
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Non-native species, phenotypic plasticity, zooplankton, thermal–trophic regime, anthropogenic dispersalAbstract
Biological invasions of freshwater zooplankton are increasing in tropical regions. The presence, morphology, ecology, and potential distribution of Daphnia lumholtzi were evaluated in the Ángel Albino Corzo “Peñitas” reservoir. Six sites were sampled during dry seasons (2022–2024), recording temperature, conductivity, dissolved oxygen, pH, transparency, and chlorophyll-a; zooplankton was collected with a 100 µm net. Morphometrics (210 organisms per season), physicochemical mapping, and ecological analyses (Kruskal–Wallis, Olmstead-Tukey, Spearman) were conducted. Potential distribution was modeled using MaxEnt.
Physicochemical parameters did not differ among years. The cladoceran community comprised nine species; D. lumholtzi was dominant and codominant with Ceriodaphnia lacustris and Diaphanosoma fluviatile. Its abundance was positively associated with temperature (r = 0.69; p = 0.011) and chlorophyll-a (r = 0.55; p = 0.007), whereas C. lacustris showed negative relationships with temperature (r = ?0.48; p = 0.021) and with D. lumholtzi (r = ?0.92; p = 0.001). Specimens exhibited well-developed cephalic and caudal spines, a bilobed postabdomen, and three postabdominal processes. MaxEnt showed excellent performance (AUC ? 0.99), identifying surface temperature (~84%) and chlorophyll-a (~8%) as main predictors, with probabilities > 0.7 in lentic zones and inter-dam sections.
A favorable thermal–trophic regime and phenotypic plasticity likely sustain its local dominance. Cage aquaculture emerges as a probable introduction vector. Seasonal monitoring and biosecurity protocols are recommended to mitigate risks to native zooplankton and commercially important or protected fish fauna.
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