Eric Lowet

This paper develops a sCMOS-based widefield imaging system for multi-site fiber photometry using soma-targeted GEVIs, demonstrating high-speed voltage tracking in mouse hippocampus and cortex.

This paper investigates how high frequency electrical stimulation modulates fast spiking interneurons in different brain regions, finding region-specific entrainment and bidirectional effects on temporal processing.

The paper investigates how microsaccades influence visual processing by delaying attention engagement until the first microsaccade toward a target stimulus, enhancing neuronal responses and decoding accuracy.

This paper investigates how intrinsic conductances and oscillatory inputs influence the transition between single spiking and bursting in hippocampal neurons, identifying frequency-specific resonance mechanisms.

The paper shows that 10 Hz sensory stimulation enhances delta rhythmicity of stepping movement and strengthens coupling between striatal networks and movement in mice.

This paper introduces a microscope combining targeted illumination and confocal gating to improve voltage imaging in dense tissues, enhancing signal-to-noise ratio and reducing crosstalk.

The paper shows that parvalbumin interneurons synchronize their membrane voltage with hippocampal theta rhythms, organizing spike timing and network dynamics during locomotion.

The paper shows that single and complex spikes in hippocampal neurons encode frequency-specific information during spatial navigation, with distinct roles for theta and gamma rhythms.

This study shows that deep brain stimulation (DBS) causes membrane depolarization in hippocampal neurons, impairing their ability to process inputs and creating an information lesion.

This paper demonstrates targeted illumination with SomArchon to enable large-scale voltage imaging in the brain, improving signal contrast and reducing background contamination.

This study uses experimentally constrained computational models to analyze how contrast affects gamma rhythm instability in V1, finding that increased input heterogeneity disrupts inhibitory cell pacemaker function.

The paper shows that increased alpha/beta oscillations and coherence between auditory and prefrontal cortices during extinction learning correlate with improved behavioral performance in mice.

This study shows that gamma-band synchronization in monkey visual area V1 relies on instantaneous frequency modulations rather than stable frequency sharing.