Jan Clemens

The paper investigates whether a shared neural circuit can recognize multiple temporal scales in cricket communication signals, finding that long-timescale selectivity begins before short-timescale processing.

This study identifies abdominal-B neurons as a dedicated pathway for vibration production in Drosophila, showing that signal identity and persistence can be independently controlled by distinct circuit components.

The paper shows that sex-specific behavioral feedback alters song and movement dynamics in Drosophila courtship, revealing how fixed sensorimotor rules generate flexible social behavior through context-dependent partner responses.

This study identifies context-specific integration strategies in Drosophila males for combining song and taste cues during social interactions.

The paper identifies two neuronal populations in Drosophila that control distinct aspects of walking direction on different hierarchical levels, showing their activity correlates with specific turning behaviors.

This study shows nightingales adjust their songs in response to rivals, with neurons in HVC tuned to specific songs, enabling context-specific vocal responses.

The paper identifies a single neural circuit in Drosophila that coordinates context-dependent multimodal signaling by integrating sensory cues, internal state, and behavior.

The paper investigates a unique resonant song recognition behavior in crickets, showing how it arises from combining nonlinear computations in neural networks.

The paper models the song recognition network in crickets to show how computational flexibility generates phenotypic diversity in pulse pattern recognition.

This paper introduces DAS, a deep learning method for annotating acoustic signals across species, demonstrating accuracy, robustness, and speed.

The paper shows that quadratic filtering and divisive normalization in Drosophila auditory neurons create a robust representation of courtship song by exploiting its natural statistics.

This study identifies pC1-Alpha neurons in Drosophila females that drive persistent behaviors through recurrent neural connectivity.

The paper examines sex-specific differences in neural processing of acoustic signals in grasshoppers, finding males prioritize speed while females prioritize accuracy in mate detection.

The paper identifies neurons in Drosophila that detect acoustic signals and drive sex-specific behaviors by linking auditory perception to behavioral responses.

The paper identifies a new song mode in Drosophila, revealing how sensory feedback and neural activity influence song production and perception.

The paper investigates fast variance adaptation in Drosophila JONs to improve sound encoding by correcting for background noise.