Florian Engert

The paper investigates color signal processing at the first visual synapse in larval zebrafish brains, finding widespread color responses and parallel processing of color, motion, and luminance information.

This paper explains decision forests and deep networks as partition and vote schemes, linking them to statistical pattern recognition and brain functioning.

The paper shows social isolation activates an oxytocinergic circuit in larval zebrafish that modulates both defensive and feeding behaviors through chemical cues.

The paper uses calcium imaging in larval zebrafish to show cerebellar activity predicts motor decision timing and outcome before movement.

This study identifies a bidirectional interaction between hypothalamic nuclei in larval zebrafish that regulates hunger and satiety through opposing activity patterns.

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 analyzes whole-brain neuronal activity in larval zebrafish during visual stimuli and motor output, revealing functional brain nuclei and convergent sensorimotor transformations.

The paper identifies a pressure relief valve in the endolymphatic sac of zebrafish larvae that regulates inner ear pressure through dynamic lamellar junctions.

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.

The paper identifies asymmetric projections of central vestibular neurons in zebrafish and shows how these projections enhance sensory encoding of nose-up stimuli while maintaining gaze stabilization.

The paper presents whole-brain serial-section electron microscopy data of a larval zebrafish, enabling reconstruction of neuronal processes and analysis of axonal symmetry and connectivity.