Remembering Stephen Goldman, “an institution” at MIT
Faculty and staff recall Goldman’s unending commitment to his work for more than three decades.
Faculty and staff recall Goldman’s unending commitment to his work for more than three decades.
Professor of physics will use US Department of Defense fellowship to study quantum science with ultracold atoms.
MIT PhD student Kathrin Kajderowicz is studying how hibernation-like states could pave the way for new hypothermic therapies.
In addition to turning on genes involved in cell defense, the STING protein also acts as an ion channel, allowing it to control a wide variety of immune responses.
Biologist Nicole De Nisco ’07, PhD ’13 draws on her love of problem-solving and interdisciplinary skills honed as a student at MIT.
MIT researchers find timing and dosage of DNA-damaging drugs are key to whether a cancer cell dies or enters senescence.
A new analysis describes steps planners can take to make forests more effective “natural climate solutions.”
Researchers discover how to control the anomalous Hall effect and Berry curvature to create flexible quantum magnets for use in computers, robotics, and sensors.
Ultrasound research specialist and 2023 MIT Excellence Award winner Nicole Henning adapts ultrasound technology for more sensitive, less invasive imaging for disease modeling.
Electric fields shared among neurons via “ephaptic coupling” provide the coordination necessary to assemble the engrams that represent remembered information.
Three-year fellowship will support Weissbourd’s research on how the C. hemisphaerica jellyfish survives and thrives by constantly making new neurons.
A new approach opens the door to a greater understanding of protein-microbe interactions.
Whitehead Institute researchers find many transcription factors bind RNA, which fine-tunes their regulation of gene expression, suggesting new therapeutic opportunities.
Distinctive EEG patterns indicate when a patient’s state of unconsciousness under general anesthesia is more profound than necessary.
A new study shows that truncated versions of the Tau protein are more likely to form the sticky filaments seen in the brains of people with Alzheimer’s disease.