Alipasha Vaziri

The paper introduces TrUDI, a three-photon microscopy system that improves imaging depth in the mouse brain to ~2 mm with enhanced fluorescence detection.

The paper develops a method for large-scale volumetric calcium imaging in marmoset brains, revealing fine-grain tuning properties and columnar organization in auditory and visual cortices.

Suite3D improves 3D cell detection in two-photon microscopy by correcting motion and segmenting cells across planes, enhancing detectability and signal quality.

This paper introduces a miniaturized mesoscope (SOMM) for high-resolution calcium imaging in freely moving mice, achieving widefield, cellular resolution with robustness against motion artifacts.

This study identifies Rheb as a molecular substrate in the nucleus accumbens that enables drugs of abuse to hijack reward circuits and suppress natural reward responses.

The paper demonstrates that dimensionality scales unboundedly with neuron number in mouse cortex-wide recordings, revealing internal variables without immediate behavioral correlates.

The paper identifies brain-wide neuronal populations that predict behavioral variability in larval zebrafish, showing sensory and internal variables are mixed across neural populations.

The paper introduces a long working distance air objective for multiphoton imaging in vivo, demonstrating its performance across multiple species and imaging systems.

The paper introduces a mesoscale light field imaging system for high-speed volumetric calcium imaging of neuronal activity in mouse cortex.

This paper introduces Light Beads Microscopy (LBM), a high-speed volumetric imaging technique for neuroactivity, demonstrating cellular resolution recordings in mouse cortex at speeds compatible with calcium transient resolution.

The paper uses calcium imaging in larval zebrafish to show cerebellar activity predicts motor decision timing and outcome before movement.

This paper introduces SID, a computational method that extends light-field microscopy to enable high-speed volumetric Ca2+ imaging in scattering mammalian tissue.

The paper evaluates and compares two-photon calcium imaging modalities to optimize imaging speed and signal-to-noise ratio in scattering brain tissue.