The complexity and precision of the nervous system is organized over time by a combination of nature and nurture. We are interested in understanding how molecular and activity-dependent mechanisms drive the development of neural circuits for sensory perception.
visual circuit development
We study the mammalian visual system as a model for exploring how brain circuits emerge and remodel early in life. The connections from the eyes to the brain undergo remarkable developmental reorganization to enable visual processing of motion, color, contrast, and luminance in parallel neural circuits. We use cutting edge techniques to monitor and manipulate the structure, function, and developmental plasticity of neural pathways from the eyes to the brain. Our goal is to understand the logic of parallel visual circuits and contribute new discoveries that will help lead to treatments for developmental disorders and blinding diseases.
We target specific cell types and circuits in the developing visual system using genetic transfection techniques, tract tracing, and transgenic models. We investigate synaptic connectivity and subsynaptic protein organization using custom multi-color volumetric super-resolution tools and techniques for reconstructing microcircuits with molecular specificity at the nanoscale. We leverage the power of high-performance computing to mine new biological insights from big data.