Lindsey L. Glickfeld

The paper shows that somatostatin interneurons in mouse visual cortex play a greater role in stabilizing network activity with stronger sensory input and increased arousal.

The paper shows that synaptic network dynamics in mouse visual cortex regulate spatial and temporal integration by accelerating response decay through delayed interneuron activation.

The paper investigates how brief stimuli affect adaptation in mouse visual cortex neurons through input-specific synaptic depression.

The paper introduces DART.2, a method for cell-specific drug delivery, demonstrating robust bidirectional editing of neurotransmission in mice.

The paper investigates area-specific differences in interneuron recruitment and circuit properties across mouse visual cortex areas using in vitro recordings and optogenetic stimulation.

The paper investigates masking effects in mouse V1 neurons and finds that stimulus geometry and orientation tuning, rather than cortical interactions, explain the diversity of plaid responses.

The paper investigates the role of different visual cortical areas in perception, finding that some areas contribute to sensory processing while others influence decision-making.

The paper examines spatial integration in mouse visual cortex and higher areas, finding that PM has larger receptive fields and less surround suppression, suggesting distinct functional roles.

The paper investigates how attention modulates decoding of visual and auditory choices from primary visual cortex in mice, finding that choice decoding is modality-specific and impaired when attention is directed away from the modality.

This study shows that changes in sensory encoding can directly influence perceptual bias, challenging the traditional view that bias reflects only cognitive processes.

The paper shows that neuronal adaptation in the mouse visual cortex leads to suboptimal orientation discrimination by failing to discount distractor-preferred neurons.