Mikko Juusola

This study shows Drosophila larvae can learn to avoid specific colors associated with electric shocks, demonstrating elementary color vision and the role of photoreceptor pathways in learned behavior.

The paper models how depth perception in flies arises from neural superposition in their compound eyes, showing distance-dependent responses in lamina neurons.

The paper shows how houseflies maintain visual accuracy during fast motion by using synaptic high-frequency jumping, which enhances visual bandwidth and reduces delays.

This study shows that string-pulling behavior spreads between bumblebee colonies under open diffusion conditions and persists over time.

This study identifies Odd neurons in Drosophila larvae as integrators of innate and learned olfactory signals that regulate chemotaxis and memory.

This study develops a neuromorphic model of active vision in bees, showing how spatiotemporal encoding in lobula neurons enhances pattern recognition through dynamic neural activity and efficient coding.

This study reveals how Drosophila uses mirror-symmetric microsaccades in its compound eyes to achieve high-resolution 3D vision through dynamic disparity sampling.

The paper introduces a new imaging technique to study photoreceptor microsaccades in compound eyes across different insect species.

This paper expresses human tau proteins in specific Drosophila clock circuits and shows how it disrupts sleep and circadian rhythms in different ways.

The paper investigates how Ca2+-activated K+ channels affect network excitability and sensory perception in Drosophila mutants, showing their role in improving adaptability and reducing energy costs.

This study shows Drosophila can see moving objects with high acuity despite their compound eyes, due to specialized photoreceptor function and microsaccadic movements.