Floris van Breugel

The paper characterizes the synaptic connectome of neurosecretory cells in Drosophila, revealing their regulatory roles in physiology and behavior through input and output pathways.

The paper identifies neural circuits in Drosophila that link respiration to flight and hydration, showing how spiracle control is modulated by both locomotion and internal state.

This study shows that Drosophila adjust their olfactory search behavior across different flow conditions using a flow-invariant rhythmic pattern, suggesting a unified framework for odor-guided search.

This study shows that Drosophila melanogaster use wind history to guide olfactory search behavior, maintaining a short-term memory of wind conditions to navigate odor plumes.

This paper develops an artificial neural network to predict Drosophila body yaw orientation from translational flight trajectories, achieving lower error than linear and Mobius regressions.

This study examines how yellowjackets locate odor sources in different natural wind conditions and finds they can do so across all observed wind conditions without preference.

The paper shows that PFN representations of self-motion can decode wind direction during flight using computational models and neural networks.

This paper introduces BOUNDS, a method to quantify how sensor motion affects estimation in nonlinear systems, demonstrating its application to Drosophila flight for wind direction estimation.

This study shows Drosophila melanogaster use wind direction and deceleration to adjust their search strategies during olfactory tracking in different airflow conditions.

The paper shows that expanded sensory neuron populations in Drosophila enhance odor tracking without increasing projection neuron sensitivity.

This study investigates how olfactory and visual cues are integrated in mosquitoes, showing CO2 modulates visual responses and revealing asymmetrical, time-dependent neural coupling between these senses.

The paper shows that Drosophila are attracted to CO2 during active foraging but avoid it at low activity, while ethanol is consistently attractive, revealing distinct activity-gated pathways for CO2 and ethanol responses.