Scholars from around the world gathered online to share new research on how intricately structured neural processes enable plasticity of circuit connections and help integrate incoming information to enable brain function

Large-scale, integrated application of advanced computational, biological techniques aims to discover mechanisms underlying ALS and frontotemporal lobar degeneration with motor neuron disease

While the brain acquires resistance to continuous treatment with mGluR5 inhibitor drugs, lasting effects may still arise if dosing occurs intermittently and during a developmental critical period

How brain circuits integrate many sources of context to flexibly guide behavior

As a researcher studying Huntington’s disease, and as a science communicator working tirelessly to keep Portuguese- and Spanish-speaking communities informed about Covid-19, Izabella Pena is focused on keeping people safe.

As mice watched movies, scientists watched their brains to see how vision could be represented reliably. The answer is that consistency in representation is governed by a circuit of inhibitory neurons

Neuroscientists at MIT and Massachusetts General Hospital have developed a statistical framework that rigorously describes the brain state changes that patients experience under ketamine-induced anesthesia.

By temporarily suspending retinal activity in the non-amblyopic eye of animal models, neuroscientists restrengthened the visual response in the amblyopic eye, even at ages after the critical period when patch therapy fails

Undergraduates from colleges across the country gain scientific training, mentorship and experience as participants in the MIT Summer Research Program

The visual cortex stores and remembers individual images, but when they are grouped into a sequence, mice can’t recognize that without guidance from the hippocampus

Long thought of as a generic alarm system, the locus coeruleus may actually be a sophisticated regulator of learning and behavior, an MIT team posits

To quickly express genes needed for learning and memory, brain cells snap both strands of DNA in many more places and cell types than previously realized, a new study shows