Christopher H. Chen

The paper identifies a 1-5 Hz delta rhythm in thalamic neurons during motor learning in mice and shows its role in cerebellar-cortical communication through CaV3.1-dependent resonance.

This study characterizes Purkinje cell projections to the brainstem, revealing widespread synapses with regional differences and functional selectivity.

The paper shows that variable synaptic weights from Purkinje cells to cerebellar nuclei neurons affect both firing rate and timing, suggesting a dual coding mechanism.

The paper identifies a Purkinje cell to parabrachial nucleus pathway that enables cerebellar influence over forebrain regions involved in nonmotor functions, distinct from the traditional deep cerebellar nuclei pathway.

The paper investigates spike-frequency adaptation in deep cerebellar nuclei neurons and finds it is unusually slow, allowing linear firing responses on sub-second time scales.

The paper shows that climbing fiber synapses inhibit neighboring Purkinje cells via ephaptic coupling, suppressing simple spikes and influencing cerebellar output.

This study shows that modulating cerebellar Purkinje cell activity in mice affects aggressive behavior without altering motor function.