How to prevent biofilms in space
Microbial or fungal biofilms on spacecraft can clog hoses and filters, or make astronauts sick. Space Station tests show that a surface treatment can help.
Microbial or fungal biofilms on spacecraft can clog hoses and filters, or make astronauts sick. Space Station tests show that a surface treatment can help.
The findings point to faster way to detect bacteria in food, water, and clinical samples.
Biologist Nicole De Nisco ’07, PhD ’13 draws on her love of problem-solving and interdisciplinary skills honed as a student at MIT.
Visolis, founded by Deepak Dugar SM ’11, MBA ’13, PhD ’13, is working to decarbonize the production of everything from rubber to jet fuel.
A new approach opens the door to a greater understanding of protein-microbe interactions.
C16 Biosciences, founded by MIT alumni, has developed a microbial oil to replace palm oil, whose production reaps environmental devastation.
Biology graduate student Tong Zhang has spent the last two years learning the intricacies of how bacteria protect themselves.
A new study shows the carbon-capturing phytoplankton colonized the ocean by rafting on particles of chitin.
Applying a small voltage to the walls of algae growing tanks can prevent cloudy buildup and allow more photosynthesis to happen.
A new analysis reveals how Staphylococcus aureus gains mutations that allow it to colonize eczema patches.
Geobiologist Greg Fournier seeks to uncover the conditions leading to the emergence of life.
Prochlorococcus, the world’s most abundant photosynthetic organism, reveals a gene-transfer mechanism that may be key to its abundance and diversity.
Harnessing these protective molecules may offer a new way to treat the disease, which spreads through contaminated water.
Associate Professor Otto Cordero is looking for the fundamental constraints that shape microbial ecosystems.
Up to one-third of the carbon consumed by Prochlorococcus may come from sources other than photosynthesis.