Jeff Gore

The paper challenges the traditional r-K trade-off theory by showing a positive correlation between growth rate and carrying capacity in microbes, with implications for community assembly and species coexistence.

The paper shows that microbial communities maintain growth under stress by shifting towards species with higher growth rates, using experiments and modeling.

The paper investigates how nutrient availability affects microbial community diversity and structure through experiments and a consumer-resource model.

The paper shows that repulsion from slow-diffusing nutrients enhances chemotaxis towards moving nutrient sources in E. coli by combining attraction to fast-diffusing nutrients.

This study shows that interspecies interaction strength determines whether communities or species are the units of selection during microbial coalescence.

The paper develops a continuum model to study interfacial morphodynamics in microbial communities, finding that interface stability depends on cell proliferation rates and substrate friction.

The paper shows that complex ecosystems become unstable when resource consumption deviates from niche ranges, leading to alternative states and species extinction.

The paper shows that invasion success and impacts in microbial communities depend on dynamics, interaction strength, and diversity, with more fluctuating and diverse communities being more invasible and having larger ecological effects.

The paper shows that structured interactions in microbial communities prevent keystone species by enhancing resilience to extinctions in synthetic microcosms.

The paper shows that ecosystem stability depends on diversity differences between trophic levels rather than absolute diversity, with stability increasing as diversity differences grow.

This study shows that cooperative growth, not competition, drives multistability in microbial communities by demonstrating four stable states in a six-species respiratory tract community.

The paper shows that sequential resource use and environmental changes create temporal niches, allowing more species to coexist than resources alone.

The paper identifies ecological suicide as a phenomenon where bacteria modify environmental pH to the point of population extinction, showing it occurs across diverse microbes and can lead to oscillatory dynamics.

The paper shows that random DNA sequences can rapidly evolve into functional promoters in E. coli with minimal mutations, highlighting the accessibility of promoter recognition machinery.