Ian G. Davison

Four miniature lenses sharing one CMOS sensor, with computational stitching, give cellular-resolution imaging over 7.5 × 10 mm^2 at video rate, resolving 3,474 mouse cortical neurons.

This paper introduces a micro-fiber array system for measuring and manipulating neural dynamics in large brain volumes during behavior, revealing spatiotemporal patterns of dopamine release and enabling precise optogenetic control.

The paper develops tools for high-speed, low-light two-photon voltage imaging of large neuronal populations in awake mice, achieving stable imaging of over 100 neurons for an hour.

The paper investigates how female mice balance memory fidelity and representational stability in the accessory olfactory bulb during the Bruce Effect by analyzing neuronal responses to odorants before and after imprinting.

This paper introduces a novel miniaturized mesoscope for cellular-resolution imaging of neural activity in freely behaving mice, enabling comprehensive visualization across brain regions.

This study shows that mild traumatic brain injury rapidly disrupts cortical microcirculation, causing severe reductions in cerebral blood flow and vascular dysfunction.