Visual motion estimation is a canonical neural computation. In Drosophila, recent advances
have identified anatomic and functional circuitry underlying direction-selective computations …

The perception of visual motion is critical for animal navigation, and flies are a prominent
model system for exploring this neural computation. In Drosophila, the T4 cells of the …

A neuron that extracts directionally selective motion information from upstream signals
lacking this selectivity must compare visual responses from spatially offset inputs …

Many animals use visual motion cues to inform different behaviors. The basis for motion
detection is the comparison of light signals over space and time. How a nervous system …

Across animal phyla, motion vision relies on neurons that respond preferentially to stimuli
moving in one, preferred direction over the opposite, null direction. In the elementary motion …

Neuronal computation underlying detection of visual motion has been studied for more than
a half-century. In Drosophila, direction-selective T4/T5 neurons show supralinear signal …

Sensory systems flexibly adapt their processing properties across a wide range of
environmental and behavioral conditions. Such variable processing complicates attempts to …

Many animals rely on visual motion detection for survival. Motion information is extracted
from spatiotemporal intensity patterns on the retina, a paradigmatic neural computation. A …

Motion in the visual world provides critical information to guide the behavior of sighted
animals. Furthermore, as visual motion estimation requires comparisons of signals across …

How neurons detect the direction of motion is a prime example of neural computation:
Motion vision is found in the visual systems of virtually all sighted animals, it is important for …