Mark C. Fishman

This study shows that larval zebrafish adjust their group behavior based on past experiences with population density, using a state-space model to predict these changes.

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 tracks the development of heart-brain circuits in larval zebrafish, revealing three stages of functional maturation involving vagal motor, sympathetic, and sensory pathways.

The paper introduces WHOLISTIC, a method to image cellular activity across all organs of a vertebrate, revealing body-wide circuits and responses to stimuli.

This study identifies three kinematic states in Medaka fish swimming and shows how social information processing varies across these states, leading to coordinated group behavior.

The paper shows that heart rate changes influence behavior and brain activity in larval zebrafish, with specific brain regions encoding heart rate signals.

The paper develops an all-optical system to study whole-brain neuronal dynamics during gut interoception in zebrafish, revealing how nutrient delivery and sensory stimuli are encoded across brain regions.

The paper develops a multi-species brain atlas platform for comparative neuroscience in teleost fish, revealing species-specific neural structures and enabling gene expression and activity comparisons.

The paper shows ketamine suppresses futility-induced passivity in zebrafish by modulating astroglial calcium through norepinephrine signaling.