Korinna T. Allhoff

This study shows how evolution can trigger abrupt extinction events in ecological networks through self-organized dynamics, highlighting the role of interaction types in biodiversity loss.

The paper examines how modularity in antagonistic networks affects stability, finding it stabilizing when intraguild interactions are facilitative.

The paper simulates eco-evolutionary dynamics in one- and two-species systems, showing evolution can enable rescue in single-species systems but lead to evolutionary murder in multi-species systems.

The paper uses an eco-evolutionary model to show how mutualism and antagonism interact to influence diversification in ecological networks, finding that trait correlation affects diversification rates across guilds.

This study uses a simulation model to examine how climate change affects bryozoan assemblage dynamics by altering disturbance regimes and biotic interactions.

The paper models coevolutionary transitions between mutualism and antagonism, showing ecological changes can trigger bidirectional shifts and identifying a tipping point for mutualism breakdown.

The paper examines how temperature affects body mass evolution in food webs, showing that trophic position and attack rate temperature dependence influence whether body mass increases, decreases, or remains constant with warming.