The Takahashi Lab is interested in understanding the genetic and molecular basis of circadian rhythms as well as other complex behaviors.

Since I began studying the biological rhythms of insects during graduate school, I have been fascinated with the accuracy of the circadian timing system and the phenomenal influence of the circadian clock on almost all biological activities. This fascination has fueled my interest in learning about circadian rhythms for more than a quarter of a century.

Interrogating the genome to better understand the mechanisms causing autism spectrum disorder and other neurodevelopmental disorders and inform innovative therapies

Roberts Lab focuses on understanding the cellular and circuit mechanisms for behavioral learning, learning from social experiences and from example.

Our lab's focus is to develop novel tools aimed at understanding ion channel physiology and molecular mechanism in an isolated membrane environment.

The Huber lab is focused on understanding how activity-regulated transcription and translation in neurons controls synapse and circuit plasticity and development.

Dr. Gibson's current research focuses on the changes in neocortical circuitry in the mouse model of Fragile X Syndrome (the Fmr1 KO mouse), and the mechanisms underlying these changes.

Our lab uses tractable model viruses to learn about niche-specific factors that influence viral infection and evolution.

The Pfeiffer Lab is interested in how the brain forms neural representations of experience, how those representations are consolidated into long-term memory, and how those representations can be later recalled to inform behavior.

The primary goal of Henkemeyer laboratory is to understand the biochemical signals that regulate cell-cell interactions during embryonic development.