Five with MIT ties elected to the National Academy of Medicine for 2022
Professors Mark Bear and Laura Kiessling ’83, along with Krishna Shenoy SM ’92, PhD ’95, David Tuveson ’87, and Martin Burke are among the newly elected members.
Professors Mark Bear and Laura Kiessling ’83, along with Krishna Shenoy SM ’92, PhD ’95, David Tuveson ’87, and Martin Burke are among the newly elected members.
At an exhibition marking two decades since a transformative gift from the Picower Foundation, current and alumni members described research at the forefront of neuroscience and beyond.
Gloria Choi’s studies of how the immune system and nervous system influence each other could yield new approaches to treating neurological disorders.
Study indicates ailing neurons may instigate an inflammatory response from the brain’s microglia immune cells.
Payton Dupuis finds new scientific interests and career opportunities through MIT summer research program in biology.
“We can’t think of the brain only as neurons,” says PhD student Mitch Murdock, who explores the cellular basis of Alzheimer’s disease.
A simple animal model shows how stimuli and states such as smells, stressors, and satiety converge in an olfactory neuron to guide food-seeking behavior.
When holding information in mind, neural activity is more focused when and where there are bursts of gamma frequency rhythms.
Separating densely packed molecules before imaging allows them to become visible for the first time.
Research reveals cells that span brain hemispheres to coordinate activity in visual processing centers, shows Alzheimer’s degrades their structure and function.
By tracking feedback during tasks, the anterior cingulate cortex notices when a new step has become necessary and signals the motor cortex to adjust.
A breakdown of lipid metabolism in these brain cells promotes inflammation and interferes with neuron activity, a new study finds.
Using organoids to model early development, researchers used an emerging microscopy technology to see that new neurons struggled to reach their developmental destination.
To ensure a quick halt, brain circuit architecture avoids a slow process of integration in favor of quicker differentiation, study finds.
Nerve cells regulate and routinely refresh the collection of calcium channels that enable them to send messages across circuit connections.