Neural activity during sleep has a signature structure that the brain uses to make profound improvements in our thinking and wellness

A potential new Alzheimer’s drug represses the harmful inflammatory response of the brain’s immune cells, reducing disease pathology, preserving neurons and improving cognition in preclinical tests

Researchers compared a pair of superficially similar motor neurons in fruit flies to examine how their differing use of the same genome produced distinctions in form and function

MIT researchers model and map how neurons across the tiny brain of a C. elegans worm encode its behaviors, revealing many new insights about the robustness and flexibility of its nervous system

The paths three graduate students forged to the same Picower Institute lab illustrate the value of participating in the MIT Summer Research Program in Biology and Neuroscience.

Distinctive EEG patterns indicate when a patient’s state of unconsciousness under general anesthesia is more profound than necessary.

New research provides evidence that electric fields shared among neurons via “ephaptic coupling” provide the coordination necessary to assemble the multi-region neural ensembles (“engrams”) that represent remembered information.

A three-year fellowship will support Brady Weissbourd’s research on how the C. hemisphaerica jellyfish survives and thrives by constantly making new neurons.

Why studying simple organisms—none larger than the palm of your hand—is so integral to understanding nervous system health, disease and evolution.

‘Career Award at the Scientific Interface’ recognizes Rebecca Pinals’ research to create a nanosensor-integrated brain-on-a-chip model of Alzheimer’s disease.

MIT scientists find evidence that a protein common to flies and people is essential for supporting the structure of axons that neurons project to make circuit connections. When those break down, the connections follow suit.

Brain waves carry information. A new “Cytoelectric Coupling” hypothesis posits that fluctuating electric fields optimize brain network efficiency and stability by shaping the brain’s molecular infrastructure.