Understanding microbial competition for nitrogen
Interactions among microorganisms account for nitrite accumulation just below the sunlit zone, with implications for oceanic carbon and nitrogen cycling.
Interactions among microorganisms account for nitrite accumulation just below the sunlit zone, with implications for oceanic carbon and nitrogen cycling.
Department of Civil and Environmental Engineering awards cross-disciplinary seed funds.
Insights into the hydrodynamics of the move may improve underwater vehicle design.
Species relationships devolve from jointly beneficial to competitive in benign environments.
Analysis of ant colony behavior could yield better algorithms for network communication.
New research finds interactions between microorganisms and marine particles may have significant effects on oceanic carbon cycling.
Quantitative study of Poland's Bialowieza Forest highlights processes shaping species coexistence and potential impacts of deforestation.
By clustering, cells can work together to survive challenging environments, MIT researchers show.
New research indicates marine plankton are not only more diverse than previously thought, but also profoundly affected by their environment.
Jeff Gore’s work with baker’s yeast helps ecologists respond to trends, like vanishing fisheries and collapsing honeybee colonies.
MIT study provides first direct evidence of plants in the Neanderthal diet.
Biophysicist Jeff Gore and collaborators urge applying lessons from yeast colony collapse to tumor growth.
In surprising new discovery, scientists show that microbes are more likely to adhere to tube walls when water is moving.
Spatial measurements of population density could reveal when threatened natural populations are in danger of crashing.