From: Coexistence mechanisms at multiple scales in mosquito assemblages
Logistic regression output | ||||||
---|---|---|---|---|---|---|
Pairs of species | Type of containers/ground waters | OR (CI 95%) | P (Wald) | Pattern | Support | Process |
An. bellator - Cx. imitator | bromeliad (Figure 3b,c) | 8.75 (3.47, 22.04)a | < 0.001 | Co-occurrence at micro-habitat scale (e.g., bromeliad) | Gilbert et al. [10], Yee et al. [20] and Marques et al. [31] | Specializing feeding behavior within a given larval container |
Wy. muehlensi - Wy. quasilongirostris | bromeliad (Figure 3c,e) | 0.15 (0.06, 0.37)b | < 0.001 | Co-occurrence at habitat scale (e.g., ecotone); spatial segregation at micro-habitat | Spatial heterogeneity promote coexistence by changing the scale at which competing species can coexist | |
An. bellator - An. cruzii | bromeliad (Figure 3b,c,e,g) | 0.14 (0.05, 0.34)b | < 0.001 | Co-occurrence at landscape scale; spatial segregation at micro-habitat (e.g., bromeliads) and habitat scales | Biotic interactions involving mosquito larvae are modulated by effects of context dependence across habitat gradients | |
Ae. scapularis - Ae. serratus | ephemeral ground pools (Figure 3a,d,f,l) | 0.1 (0.02, 0.61)b | = 0.013 | Co-occurrence at landscape scale; spatial segregation at micro-habitat (e.g., ephemeral pools) and habitat scales | Biotic interactions involving mosquito larvae are modulated by effects of context dependence across habitat gradients |