Assembly and Function of Motor Control Circuits

Neural circuits within the brain and spinal cord play central roles in governing diverse motor

behaviors vital to animals, including locomotion, breathing, posture, and balance. During

development, synaptic connections between motor neurons, interneurons, and sensory neurons

establish the basic architecture of the neural networks that facilitate these essential motor

functions. The genetic programs that link neuronal specification, synaptic specificity, and motor

behavior are, however, poorly defined.

Our lab seeks to bridge these gaps, by employing multidisciplinary and integrative approaches,

including genetic manipulations of defined neuronal types, genome-wide interrogation of gene

regulatory networks, modern circuit-tracing methods, comparative analyses in multiple vertebrate organisms, and behavioral assays.

The overall goal of our studies is to reveal the mechanisms by which neural circuits are

assembled, and to determine how genetically encoded developmental programs contribute to

the emergence of specific motor behaviors. Defining the genetic pathways governing neuronal

diversification and connectivity can provide basic insights relevant to the study of diseases and injuries to the nervous system that affect motor circuit function.

Press

Screen Shot 2020-04-10 at 2.16.00 PM.png
Screen Shot 2020-04-30 at 4.19.26 PM.png

Lab News

Maggie Successfully Defends Thesis Over Zoom

Congratulations Dr. Shin!