Huai‐Ti Lin

This study quantifies how gaze stabilisation limits motion blur in freely flying Monarch butterflies, showing that thoracic oscillations broaden the effective photoreceptor acceptance angle, degrading spatial acuity.

This study shows that wing mechanosensation modulates optic-flow-sensitive descending neurons in butterflies by altering excitability and timing, not visual feature encoding.

The paper studies how dragonfly wings deform and how mechanosensors encode this information, showing that wing structure passively constrains deformation patterns to simplify sensing.

This study shows that Drosophila adjusts flight speed through adaptive feedforward control, not just feedback, by observing changes in speed after wing damage and antennae ablation.

The paper investigates target-selective descending neurons in dragonflies during prey interception flight, finding they stabilize prey on the eye rather than directly controlling steering.

This study maps the neuroanatomy and sensor distribution in dragonfly wings to understand how mechanosensors detect aeroelastic deformations during flight.