A stress test helps researchers distinguish between different kinds of bacteria by testing their cell wall strength under pressure.
The conclusion of this series examines the benefits, and drawbacks, of probiotics. Stanford researchers clarify whether probiotics really improve health.
This two-part series examines the benefits, and drawbacks, of probiotics. Stanford researchers clarify whether probiotics can really boost your health.
During a recent episode of "The Future of Everything," host Russ Altman and guest Ami Bhatt discuss the factors that contribute to microbiome health.
Stanford postdoc Arnold Mathijssen wanted to know how bacteria swim upstream. Someday, his findings could shape how we design devices and deliver drugs.
Two color-changing compounds found in scorpion venom can help kill the bacteria responsible for staphylococcus and drug-resistant tuberculosis.
Helicobacter pylori, a potentially nasty bacteria, somehow lives in one of every two human stomachs -- no mean feat. Here's how the bug pulls it off.
P. aeruginosa, a type of bacteria, is increasingly drug-resistant, and there's no vaccine against it. But it has a recently discovered Achilles heel.
Understanding the roles of various microbes in the human microbiome is challenging, but statistics can help, Stanford researcher Susan Holmes explains.
By learning more about the flows generated by a biofilm, researchers may discover new ways to cut off its supply of nutrients.
Found in about half of all bacterial species, the cell membrane that surrounds the cell wall may be more critical for survival than previously thought.
Renowned microbe enthusiast Stanley Falkow has died at 84. Falkow was known for his generosity, wit and remarkable scientific acumen that led to the founding of the modern field of bacterial pathogenicity — the study of how bacteria cause human disease.
This Stars of Stanford Medicine Q&A features Cooper Galvin, a graduate student in biophysics, who is working to make science accessible to all.
Stanford researchers have discovered a genetic "tuning knob" that can enlarge or shrink bacteria across a wide range - and this can be used to fatten up the bacteria to increase their susceptibility to certain antibiotics.
A technique for growing sticky films of bacteria into elaborate microscopic images could reveal how potentially dangerous biofilms grow and transmit antibiotic resistance, and could lead to novel biomaterials or synthetic microbial communities.
Stanford chemist Lynette Cegelski and her team discovered a new form of bacterial cellulose, a finding that could shed light on new ways to fight bacterial infections.