Weijian Yang

This paper introduces two multiplexed miniature two-photon microscopes (M-MINI2Ps) that enable high-speed neural imaging in freely moving mice with improved frame rates and spatial resolution.

This paper introduces a high-speed two-photon microscope using adaptive line-excitation to image neural activity in mouse cortex, increasing imaging speed and reducing laser power.

DeepLeMiN improves lensless microscopy by using a physics-informed deep learning model to enable real-time, localized 3D imaging with high resolution.

The paper identifies subnetworks in mouse visual cortex that encode context of visual stimuli, showing distinct responses to deviant and redundant stimuli.

The paper shows that activating specific pattern completion neurons in mouse visual cortex can improve or disrupt visual task performance, suggesting a causal role for neuronal ensembles in behavior.

This paper develops a dual-color two-photon microscope for 3D volumetric imaging of neural activity in awake mice, revealing new insights into cortical layer interactions and functional connectivity.

The paper demonstrates a holographic system for 3D two-photon stimulation and imaging of neural activity in the mouse neocortex in vivo with cellular resolution.

The paper introduces multi-scale approaches to improve imaging and analysis of large neuronal populations by decimating spatial and temporal resolution to enable faster imaging or larger field of view with minimal accuracy loss.