This research examines how stress during adolescence produces lasting, sex-specific cognitive effects in adulthood. Using an animal model, the work replicates learning and attention deficits seen in humans and investigates cellular communication mechanisms underlying these changes, with the goal of reducing the long-term cognitive impact of adolescent stress.

Drawing on personal experience with depression and anxiety, this researcher studies synaptic adhesion molecules—key proteins that shape how neural connections form and adapt. By understanding how these molecules change across development, the work aims to uncover molecular mechanisms behind neuropsychiatric disorders and inform future treatments or prevention strategies.

This research inserts a human-specific DNA sequence into mice to study cerebral cortex development. The modified mice show increased upper-layer neurons and glial cells, revealing how human brain evolution supports higher cognition. These findings improve understanding of human brain specialization and the origins of neurological disorders.

This research explores why children avoid eating fish despite its vital role in brain development. Through focus groups, it reveals gaps in children’s knowledge and emotional responses to fish. The project develops interactive, hands-on interventions to increase fish acceptance, helping children make informed, enthusiastic food choices that support health and learning.