Aristides B. Arrenberg

The paper compares saccadic suppression strength between macaques and zebrafish, showing it reflects differences in sensory and motor noise levels and computational resource allocation.

This study evaluates the effects of electrical stunning on stress response and tissue integrity in larval zebrafish, finding no significant stress response and preserved brain tissue.

MARINER is a visual stimulator for aquatic animals that improves underwater visual stimulation and reveals new insights into larval zebrafish visual field and colorblindness during optokinetic responses.

The paper identifies injury-induced electrochemical coupling between tissue depolarization and intracellular signaling as essential for organ regeneration in zebrafish.

This study characterizes the vertical optokinetic response in larval zebrafish, revealing differences from horizontal OKR and insights into visual processing and eye movement control.

This study shows saccadic suppression in zebrafish enhances the salience of ecologically relevant stimuli in the optic tectum by integrating visual and motor signals.

This study identifies motion-sensitive neurons in zebrafish that encode directional and speed information of optic flow, enabling decomposition of translational and rotational self-motion.

The paper measures optokinetic response gain in zebrafish larvae across their visual field using a spherical LED arena and finds anisotropic responses consistent with retinal photoreceptor densities.

This study shows that a spherical glass container reduces visual stimulus artifacts in zebrafish by minimizing refraction and reflection issues compared to flat containers.

The paper characterizes motion-sensitive neurons in the zebrafish pretectum and tectum, revealing distinct receptive field properties and their potential roles in prey capture and optomotor behavior.

The paper identifies and characterizes oculomotor neurons in the zebrafish hindbrain, revealing a mixed binocular code with position and velocity tuning.