Visual motion cues are used by many animals to guide navigation across a wide range of
environments. Long-standing theoretical models have made predictions about the …

The detection of visual motion enables sophisticated animal navigation, and studies on flies
have provided profound insights into the cellular and circuit bases of this neural …

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 …

In the visual system, peripheral processing circuits are often tuned to specific stimulus
features. How this selectivity arises and how these circuits are organized to inform specific …

Visual motion perception is critical to many animal behaviors, and flies have emerged as a
powerful model system for exploring this fundamental neural computation. Although …

Estimating motion is a fundamental task for the visual system of sighted animals. In
Drosophila, direction-selective T4 and T5 cells respond to moving brightness increments …

Detecting the direction of visual movement is fundamental for every sighted animal in order
to navigate, avoid predators, or detect conspecifics. Algorithmic models of correlation-type …

Detecting motion is a feature of all advanced visual systems [1], nowhere more so than in
flying animals, like insects [2, 3]. In flies, an influential autocorrelation model for motion …

Synaptic circuits for identified behaviors in the Drosophila brain have typically been
considered from either a developmental or functional perspective without reference to how …

Many animals guide their movements using optic flow, the displacement of stationary objects
across the retina caused by self-motion. How do animals selectively synthesize a global …