Daniel Huber

This paper develops a biomechanical model of the mouse distal forelimb to simulate fine motor control and validate it against experimental data.

This paper introduces mCleLight, a method for clearing, labeling, and imaging whole human tissues, enabling multiscale analysis of organ architecture.

This study explores how auditory music perception dimensions can be translated into tactile perception, finding that tactile pitch relates to stimulus frequency and that rapid temporal transitions are key for pitch encoding.

iSleep tracks binocular pupil dynamics during sleep and anesthesia, revealing correlations with brain activity and enabling state prediction and nociception monitoring.

This study identifies lamellar Schwann cells in Pacinian corpuscles as key elements that potentiate mechanosensitivity through structural and functional interactions with afferent axons.

The paper develops a biomechanical model of the mouse forelimb to predict muscle activity during reaching movements, finding strong similarity between simulated and empirical muscle patterns.

BlueBerry is a wireless optogenetic device for real-time, closed-loop manipulation of neuronal activity in freely moving animals, enabling scalable studies of social behavior and decision-making.

eLemur provides a 3D cellular-resolution brain atlas for the mouse lemur, enabling detailed anatomical and cellular analysis to support neuroscience research.

This study identifies structured frequency and location maps in the dorsal column nuclei, showing their relationship and emergence through dendritic sampling of axonal afferents.

This study investigates how vibrotactile stimuli are encoded along the ascending somatosensory pathway in mice, revealing a transformation from temporal to rate coding in the thalamus.

The paper investigates how motor cortex layer 2/3 neurons encode spatial target information during reaching tasks in mice, showing target-space selectivity persists beyond movement execution.

This study compares visual segmentation strategies between mice and primates, finding that mice rely on texture memorization while primates use opponent motion cues for figure-ground segmentation.

The paper shows that mouse and human vibro-tactile pitch perception follows a common computational principle involving frequency and amplitude relationships.

The paper shows that mouse somatosensory cortex neurons encode substrate vibration frequencies through spike rate tuning, unlike primate vibrotactile responses.

This paper introduces an optical alignment device to improve two-photon microscopy imaging by minimizing tilt angles between glass windows and the optical axis.