B. H. Schlomann

The paper studies the formation of three-dimensional bacterial clusters in the zebrafish gut and finds power-law size distributions emerging from a Yule-Simons-type process.

This study shows free-living bacteria can rapidly adapt to vertebrate hosts through experimental evolution, with parallel improvements in swimming motility across independently evolved populations.

This study shows that swimming motility and chemotaxis in Vibrio bacteria control their spatial organization, persistence, and inflammatory activity in the zebrafish gut.

The paper shows sublethal antibiotics reduce gut bacterial abundance by promoting aggregation and expulsion in zebrafish larvae.

The paper shows that bacterial cohesion in zebrafish intestines correlates with their spatial distribution, suggesting general biophysical rules govern microbiome organization.