With an eye on implications for regenerative medicine, Assistant Professor Brady Weissbourd will use the support of being named a Searle Scholar to study how jellyfish excel at building and regenerating their neural networks.

With a new Klingenstein-Simons Fellowship in Neuroscience, Assistant Professor Linlin Fan will seek to strengthen understanding of how neural connections change to encode memories of specific locations.

As a newly named Pew Biomedical Scholar, Assistant Professor Sara Prescott and her lab plan to test whether and how neurons have a role in airway remodeling, which goes awry in many diseases.

A suite of three innovations by an MIT-based team enables high-throughput imaging of human brain tissue at a full range of scales and mapping connectivity of neurons at single cell resolution.

Emerging evidence shows how brain waves help to knit our internal thoughts and external awareness together into an organized, unified whole

New camera chip design allows for optimizing each pixel’s timing to maximize signal to noise ratio when tracking real-time visual indicator of neural voltage

A newly described technology improves the clarity and speed of using two-photon microscopy to image synapses in the live brain

New research addresses a gap in understanding how ketamine’s impact on individual neurons leads to pervasive and profound changes in brain network function.

Many neurons exhibit “mixed selectivity.” They can integrate multiple inputs and participate in multiple computations. Mechanisms such as oscillations and neuromodulators recruit their participation and tune them to focus on the relevant information.

With support from The Marcus Foundation, an MIT neuroscientist and a Harvard Medical School immunologist will study the “fever effect” in an effort to devise therapies that mimic its beneficial effects.

Bursts of brain rhythms with “beta” frequencies control where and when neurons in the cortex process sensory information and plan responses. Studying these bursts would improve understanding of cognition and clinical disorders, researchers write.

Thought emerges and is controlled in the brain via the rhythmically and spatially coordinated activity of millions of neurons, scientists argue in a new article. Understanding cognition and its disorders requires studying it at that level.