Isaline Guex

The paper develops a mathematical framework to predict microbial community assembly using monoculture growth kinetics and inferred species interactions, revealing biphasic community development driven by competition and cross-feeding.

This study tracks microbial community assembly in soil bacteria, showing that spatial interactions and growth kinetics determine species success and community composition.

This study shows that habitat fragmentation increases bacterial community evenness and species coexistence by creating isolated microhabitats with varying taxa compositions.

The paper shows that fragmented microhabitats lead to more variable bacterial interactions, enabling alternative outcomes and supporting species diversity.

This study develops and benchmarks coculture microcolony experiments to quantify interspecific interactions and growth kinetics in bacterial communities.