Gaby Maimon

The paper shows how Drosophila neurons use calcium spikes during hyperpolarization to invert two-dimensional vectors in the central complex.

This study shows Drosophila can maintain a consistent navigational goal angle for days to weeks using a virtual-reality setup.

The paper describes a new calcium biosensor, G-Ca-FLITS, that maintains high brightness in both calcium-bound and -unbound states, enabling more accurate and consistent measurements.

The paper identifies a neuronal circuit in Drosophila that converts allocentric heading and goal angles into an egocentric steering signal through interactions between EPG, FC2, and PFL3 cells.

This paper shows that Drosophila use a rise-to-threshold calcium signal in oviDNs to guide egg-laying decisions based on the relative value of substrates.

This study shows Drosophila use an internal expectation to guide egg-laying decisions, adjusting behavior based on relative substrate value and dopamine signaling.

The paper identifies two cell types in Drosophila that encode body-centric movement signals and shows how they transform these signals into world-centric coordinates for navigation.

The paper identifies a neuronal circuit in Drosophila that performs vector arithmetic to compute an allocentric traveling-direction signal.

SPARC enables precise control of transgene expression in specific fractions of post-mitotic cells in Drosophila.

Flies compare an internal heading estimate with an internal goal angle to guide navigation.