Martin Haesemeyer

This study shows that larval zebrafish actively modulate their coasting mechanics between swim bouts, which predicts swim timing and suggests active control of post-propulsion movement.

The paper identifies a neuron-glia circuit in zebrafish that anticipates hypoxia by integrating behavioral intent and physiological state to prevent internal oxygen depletion.

This study shows that PGE2 alters temperature stimulus valence in zebrafish, making heating attractive and cooling aversive, challenging the idea that fever reduces perceived warmth.

This study uses Markov models and calcium imaging to show how larval zebrafish navigate thermal gradients through behavioral strategies and neural activity.

This study shows that sensorimotor integration improves thermosensory processing in zebrafish by enhancing motor output structure and revealing mixed-selectivity neurons involved in thermal stimulus processing.

This study identifies a neural network connecting the preoptic area and habenula in larval zebrafish that supports thermoregulation through movement and spatial navigation.

The paper introduces MINE, a framework using CNNs to link neural activity to behavioral tasks, identifying new neuron classes in zebrafish thermoregulatory circuits.

This study investigates visual habituation in larval zebrafish using Ca2+ imaging and pharmacological screens, revealing complex, distributed neural mechanisms without a simple pharmacological relationship to behavior.

This study investigates how zebrafish larvae distinguish self-generated reafferent mechanosensory signals from exafferent stimuli using lateral line hair cells and neural circuits.

This study shows that visual habituation in larval zebrafish involves multiple independent processes that adapt different behavioural components, suggesting distributed plasticity rather than a single site of change.

The paper develops a dynamic circuit model to explain how heat sensation is transformed into swimming behavior in larval zebrafish.

This paper shows that artificial and biological neural networks converge on similar temperature representations and uses an ANN to discover a new temperature-responsive cell type in zebrafish.