Headshot of Naoshige Uchida.

Naoshige Uchida

Professor of molecular and cellular biology
Harvard University

Naoshige Uchida is professor of molecular and cellular biology at Harvard University. He studies the neurobiological mechanisms underlying decision-making and reinforcement learning, using rodent models. He received his Ph.D. from Kyoto University, where he worked on the molecular mechanism of synaptic adhesions in Masatoshi Takeichi’s laboratory.

Uchida first began studying olfactory coding in Kensaku Mori’s laboratory at the RIKEN Center for Brain Science. He then joined Zachary F. Mainen’s laboratory at Cold Spring Harbor Laboratory, where he developed psychophysical olfactory decision tasks in rodents. He started his laboratory at Harvard University in 2006. His current interests include neural computation in the midbrain dopamine system, functions of the cortico-basal ganglia circuit, foraging decisions and motor learning. His research combines quantitative rodent behaviors with multi-neuronal recordings, optogenetics, viral neural circuit tracing, two-photon microscopy and computational modeling.

From this contributor

Explore more from The Transmitter

Diabetes researcher from NOVA Medical School, Portugal, shows how mice used to study blood glucose regulation, memory changes and metabolic processes associated with diabetes are kept in laboratory.

Public engagement can help cultivate support for animal research

The European Animal Research Association's Patient Discovery Project connects researchers with people who have the conditions they study. The learning goes both ways.

By Kirk Leech
6 November 2026 | 7 min read

Brain registers spatial location outside hippocampus

A more complex picture of how an animal’s brain tracks its location is starting to emerge.

By Natalia Mesa
5 November 2026 | 1 min watch
Illustration of worm on top of a purple rock with neurons in the background.

The three-banded panther worm is rewriting the story of brain evolution

The animal has a brain structure all its own, according to a 2026 preprint. The finding hints that brains could have evolved centralization before regionalization.

By Sarah DeWeerdt
4 November 2026 | 7 min read