The art of worming through tight spaces

How active matter, such as assemblages of bacterial or epithelial cells, manages to expand into narrow spaces largely depends on their growth dynamics, as LMU physicists demonstrate in a newly published study.

Microorganisms protect iron sheet piling against degradation

A natural biofilm of oxygen-free microorganisms protects iron sheet piling against corrosion by depositing minerals on the wall. That is what researchers at the Radboud University, the Dutch Institute of Ecology (NIOO-KNAW) ...

Just how resilient are biofilms?

Biofilms hold promise for generating electricity and removing contamination from groundwater, but they also threaten many industrial processes and human health. As the environment changes in which these biofilms thrive, it ...

How flow shapes bacterial biofilms

EPFL biophysicists have taken a systematic look into how bacterial biofilms are affected by fluid flow. The findings can give us clues about the physical rules guiding biofilm architecture, but also about the social dynamics ...

A novel antibiotic idea: Preventing bacterial stickiness

Researchers within the Dirk Linke group in the Department of Biosciences, University of Oslo, are proposing a new method to fight the bacterium Yersinia enterocolitica, which causes severe diarrhea in an estimated 10 million ...

Image: BioRock and roll

This fluorescent work of art captures the beauty of biofilms, or the growth of microbes on rocks. In this microscopic image, Sphingomonas desiccabilis is growing on basalt.

page 12 from 31