Swetha Godavarthi Headshot

Swetha Godavarthi

Assistant Professor, Integrated Science

Integrated Sciences Academy
College of Science

Office Location
Office Mailing Address
Room 18-1065 Color Science Building

Swetha Godavarthi

Assistant Professor, Integrated Science

Integrated Sciences Academy
College of Science

Bio

Swetha is a cellular and molecular neuroscientist whose work sits at the intersection of synaptic biology, neuroplasticity, and disease.

She grew up in India, earned her MSc and PhD from the National Brain Research Centre, where she investigated what drives neuronal loss and circuit failure in Huntington's disease and Angelman syndrome. The answer kept pointing her toward the synapse — and eventually to Nick Spitzer's lab at UC San Diego, where she discovered that postsynaptic receptors actively talk back to the presynaptic neuron, stabilizing its transmitter identity through dedicated molecular bridges.

That discovery opened a new set of questions — about disease, about development, about what happens when the conversation breaks down. She firmly believes the best science begins with the courage to say "I don't know," and has followed those questions to Steven Meriney's lab at the University of Pittsburgh, and now to RIT, where she is building a lab around them.

When she's not in the lab, Swetha can be found on a trail, deep in a book, or losing herself in classical dance.

She is a co-PI on an NSF Standard Grant and a Simons Foundation Empire Faculty Fellow.

Currently Teaching

CGNS-401
3 Credits
Neurobiology is a branch of the life sciences that deals with the anatomy, physiology, and pathology of the nervous system. Neurobiology centers around the study of nerve cells and the organization of these cells into functional circuits that process information and mediate behavior. The course provides an in-depth understanding of how information is processed and stored in the brain, and delves into molecular and cellular mechanisms underlying neural functioning. Topics include the biology of cells in the nervous system; electrical and chemical signaling and the role of ion channels; biophysical principles and molecular mechanisms of synaptic transmission, synaptic plasticity and learning; organization of neuronal circuits during brain development, functioning and modification of neuronal systems through experience; mechanisms of complex behavior; disruption of the brain functions by injury and disease. Key methods employed in neurobiology research are also reviewed.