Adam G. Carter

The paper examines how cortical and thalamic inputs differentially influence cholinergic interneurons in the nucleus accumbens core, showing distinct synaptic properties and receptor contributions.

The paper identifies reciprocal and broadcast neural circuits between the paratenial thalamus and the prefrontal cortex using molecular profiling, anatomical tracing, and electrophysiology.

This study investigates subcortico-thalamo-cortical circuits in mouse ventromedial thalamus, showing SNr inputs inhibit TC cells and route through VM to influence mPFC circuits.

The paper investigates how cell-type-specific disruptions in cortico-striatal circuits in FXS model mice lead to repetitive behaviors and identifies potential therapeutic targets.

The paper identifies distinct circuit engagement by rostral and caudal BLA subregions in the prelimbic and infralimbic PFC through anatomical, electrophysiological, and optogenetic analyses.

The paper identifies distinct thalamic inputs to layer 1 of the prefrontal cortex in mice, showing VM thalamus targets NDNF+ cells and MD thalamus targets VIP+ cells, leading to different inhibitory effects on pyramidal tract cells.

This study investigates how ventral hippocampus inputs engage inhibitory interneurons in the prefrontal cortex, revealing specific roles for CCK+ interneurons and endocannabinoid modulation in feed-forward inhibition.

This study identifies cell-type specific expression and functional roles of D1 dopamine receptors in pyramidal neurons and interneurons in the mouse prefrontal cortex.