Kishore R. Mosaliganti

The paper investigates how zebrafish inner ear size is controlled through hydraulic feedback mechanisms involving fluid pressure and transport.

The paper combines expansion and lattice light sheet microscopy to enable high-speed, nanoscale molecular imaging of neural circuits across large volumes.

The paper identifies a pressure relief valve in the endolymphatic sac of zebrafish larvae that regulates inner ear pressure through dynamic lamellar junctions.

The paper develops a method to image subcellular dynamics in vivo using lattice light sheet microscopy and adaptive optics, revealing phenotypic diversity across organisms and developmental stages.

The paper shows that dense tissue packing and cell geometry regulate differentiation rate in zebrafish neural tube progenitors through Notch-dependent mechanisms.