Scientists discover highly asymmetric and branched patterns are the result of physical forces and local instabilities; research has important implications for understanding biofilms and multicellular systems.
Cell & Microbiology
Jun 11, 2013
0
0
There is remarkable biodiversity in all but the most extreme ecosystems on Earth. When many species are competing for the same finite resource, a theory called competitive exclusion suggests one species will outperform the ...
General Physics
Jan 2, 2018
13
1247
A new study from MIT finds that two strains of bacteria that are each resistant to one antibiotic can protect each other in an environment containing both drugs.
Cell & Microbiology
May 16, 2016
0
54
Antibiotic resistance is a major and growing problem worldwide. According to the World Health Organization, antibiotic resistance is rising to dangerously high levels in all parts of the world, and new resistance mechanisms ...
Cell & Microbiology
Feb 9, 2017
0
142
A new model demonstrates that chasing interactions can induce dynamical patterns in the organization of bacterial species. Structural patterns can be created due to the chasing interactions between two bacterial species.
General Physics
Oct 6, 2023
0
170
An antibiotic has been found to stimulate its own production. The findings, to be published in PNAS, could make it easier to scale up antibiotic production for commercialisation.
Cell & Microbiology
Jun 17, 2013
0
0
New research from Western University unravels a novel means of communication that allows bacteria such as Burkholderia cenocepacia (B. cenocepacia) to resist antibiotic treatment. B. cenocepacia is an environmental bacterium ...
Cell & Microbiology
Jul 3, 2013
0
0
Bacteria can boost their own immune systems by "talking" to each other, surprising new research from New Zealand's University of Otago shows.
Cell & Microbiology
Nov 18, 2016
0
424
When a plant or animal species is introduced to a new environment with few natural predators, it can spread uncontrollably, transforming the ecosystem and crowding out existing populations. One well-known example is the cane ...
Ecology
Feb 20, 2020
0
380
Small populations of pathogenic bacteria may be harder to kill off than larger populations because they respond differently to antibiotics, a new study by Emory University finds.
Cell & Microbiology
Mar 13, 2018
0
169
