Nathaniel B. Sawtell

The paper uses connectomics to map a cerebellum-like circuit in weakly electric fish, revealing structured synaptic connectivity that supports predictive sensory processing and continual learning.

The paper investigates the role of cartwheel cells in the dorsal cochlear nucleus, showing they use anti-Hebbian plasticity to enhance inhibition of output neurons during anticipated sounds.

This study shows that the cerebellum in elephant-nose fish directly controls motor production, challenging the view that cerebellum only fine-tunes movement.

The paper develops an end-to-end model of electrosensation in weakly electric fish, using artificial data to train an ANN that extracts object properties.

This study shows African weakly electric fish use conspecifics' electrical pulses to enhance electrolocation, object discrimination, and information transmission.

This paper introduces NP Ultra, a high-density electrode that improves neuronal recording yield, detection, and cell type classification in mice.

The paper shows how axonal and dendritic spikes interact to enable both learning and transmission of sensory predictions in mormyrid fish electrosensory lobe.

The paper demonstrates how neural circuits in electric fish cancel movement-related input to the electrosensory system, revealing context-specific predictions of self-generated sensory feedback.

The paper shows that in mormyrid fish, postsynaptic neurons use both spike latency and spike count from electroreceptor afferents to encode stimulus amplitude, without relying on motor corollary discharge.