Sensory and Motor Development

The cerebellum controls movement. When neural signals in the cerebellum are disrupted, people and other animals cannot precisely control their muscles and become uncoordinated, giving rise to ataxia and dystonia, and even dyslexia and autism. To understand how the cerebellum detects sensory signals from the outside world and sends signals to guide appropriate movements, we will measure the electrical and chemical signals made by brain cells in the cerebellum of zebrafish, whose cerebellum appears to work much like that of humans and other vertebrates. This information will be useful in understanding how the brain normally encodes movements and what goes wrong in cerebellar disorders.

Other Grants

Rebekah C. Evans, Ph.D., Georgetown University
In Vivo and Ex Vivo Dissection of Midbrain Neuron Activity During Exercise
Exercise is important for the health of the body and the mind. Exercise promotes learning and reduces symptoms of brain-related diseases such as Parkinson’s disease and Alzheimer’s disease. However, it…
William J. Giardino, Ph.D. Stanford University
Deciphering the Neuropeptide Circuitry of Emotional Arousal in Narcolepsy
This research project aims to investigate the neural mechanisms of a specific type of brain cell called neuropeptide neurons within a region of the brain’s amygdala network called the bed…
Howard Gritton, Ph.D., University of Illinois
Attention Mechanisms Contributing to Auditory Spatial Processing.
Our world is composed of a rich mixture of sounds. We often process sounds including speech in the presence of many other competing auditory stimuli (e.g., voices in a crowded…
Nora Kory, Ph.D., Harvard University
Elucidating the Fates and Functions of Lactate in the Brain
The human brain requires significant energy to function. Despite accounting for only 2% of our body weight, the brain consumes a substantial 20% of the body’s energy, relying on a…