To the brain, reading computer code is not the same as reading language
Neuroscientists find that interpreting code activates a general-purpose brain network, but not language-processing centers.
Neuroscientists find that interpreting code activates a general-purpose brain network, but not language-processing centers.
Unbiased, high-throughput analysis pipeline improves utility of “minibrains” for understanding development and diseases such as Zika infection.
Fluorescent imaging technique simultaneously captures different signal types from multiple locations in a live cell.
Neuroscientists find that isolation provokes brain activity similar to that seen during hunger cravings.
A direct comparison of sensory and higher-order thalamic circuits reveals fundamental differences in how they control the cerebral cortex.
Norepinephrine-producing neurons in the locus coeruleus produce attention focus, impulse control via two distinct connections to prefrontal cortex.
Gurrein Madan, brain and cognitive sciences graduate student and MathWorks Fellow, studies gut–brain signaling with implications for human health.
Research on mice suggests aging affects a brain circuit critical for learning to make some types of decisions.
Award cites major contributions to statistical analysis of brain activity and advancing the neuroscience of anesthesia.
Recurrent processing via prefrontal cortex, necessary for quick visual object processing in primates, provides a key insight for developing brain-like artificial intelligence.
By accounting for sweat physiology, method can make better use of electrodermal activity for tracking subconscious changes in physical or emotional state.
Tool developed at MIT simultaneously measures chemical and electrical brain signals, revealing unexpectedly complex relationship between brain signals.
Modifications to chromosomes in “engram” neurons control the encoding and retrieval of memories.
Scientists distinguish brain regions based on what they do, but now have a new way to overlay information about how they are built.
Collaborative research center funded by Lisa Yang and Hock Tan ’75 blends engineering and neuroscience to advance molecular tools for treating brain disorders.