J. M. Montoya

The paper examines how evolution in response to warming affects consumer-resource dynamics in phytoplankton and zooplankton communities under different temperatures and ecological interactions.

This study investigates how warming affects the stability of consumer-resource interactions by analyzing empirical data and proposing a theoretical framework to standardize comparisons.

The paper analyzes the virome of an island ecosystem to show that host phylogenetic relatedness shapes viral transmission networks, increasing disease emergence risk among closely related species.

The paper develops a theoretical framework combining sensitivity analysis and aggregate parameters to predict how warming affects consumer-resource interactions and community stability.

This study models how temperature variability affects predator-prey dynamics, showing it can lead to diverse outcomes like predator collapse or stable coexistence depending on interaction strengths and thermal performance differences.

This study shows warming increases invasion success indirectly by altering food web structure and stability, making warmed communities more susceptible to invasions.

This study shows that loss of intraspecific diversity in a predator fish affects prey communities and ecosystem functions through trophic cascades, with both genetic and functional richness playing significant roles.

The paper extends a consumer-resource model to include stoichiometric constraints, showing they affect community stability, biomass distribution, and persistence under varying temperature and nutrient conditions.

This study examines vertical transmission of microbiota in marine sponges, finding it inconsistent and unfaithful across species and siblings.