Na Young Jun

The paper investigates how neural activity fluctuates in response to multiple visual stimuli in different cortical areas, suggesting fluctuating activity may underlie visual object formation.

The paper investigates how visual cortex encodes information about multiple objects by analyzing coding fluctuations in V1 and V4 neurons, showing coordinated population-level responses when stimuli form separate objects.

The paper examines how light adaptation affects the spatiotemporal receptive field structures of retinal ganglion cell types in rats, finding that their relative organization is largely preserved.

The paper uses efficient coding theory to show how retinal mosaics and cell types emerge with varying channel capacity and noise levels.

The paper uses efficient coding theory to determine the optimal spatial arrangement of ON and OFF receptive fields in the retina based on noise and stimulus statistics.

The paper identifies a novel interneuron type in the mouse retina that provides synaptic inhibition to the AII amacrine cell, crucial for night vision.

The paper compares how different channelrhodopsin variants affect neural network activity in mice, finding distinct temporal patterns and effects on gamma-band activity.