Ethan K. Scott

The paper investigates auditory habituation differences in zebrafish autism models, finding unique and shared brain-wide circuit changes across genetic lines.

This study uses calcium imaging and network analysis in zebrafish to identify cellular-resolution network properties linked to seizure susceptibility and risk prediction.

The paper provides a pre-trained pose estimation dataset and models for zebrafish larval behavior tracking using DeepLabCut and SLEAP, enabling faster and more efficient behavioral analysis.

The paper investigates auditory stimulus-specific adaptation and deviance detection in larval zebrafish using calcium imaging, finding evidence for adaptation but not deviance detection.

This study examines the effects of sedation on brain-wide activity and auditory processing in larval zebrafish using calcium imaging, revealing a quieter, more stable brain state with altered sensory processing.

This study develops a long-lived zebrafish primary neuron culture protocol and uses it to show that scn1lab mutants exhibit hyperproliferation of non-neuronal cells.

The paper develops a hidden Markov model to analyze social interactions in zebrafish, revealing two interaction states with distinct sensory bases and temporal dynamics.

The paper shows that multiscale neuronal activity patterns are preserved across species and scales, reconciling scale-dependent theories of brain function through self-similar scaling.

This study shows that rapamycin reduces VPA-induced teratogenic effects by suppressing AP-1-mediated senescence in human and zebrafish models.

The paper uses calcium imaging to study brain-wide visual habituation networks in zebrafish, finding altered network dynamics in fmr1 mutants linked to slower habituation.

This study identifies two phases of cellular regeneration after spinal cord injury in zebrafish, highlighting the role of precursor neuron migration in initiating functional recovery.

This study reveals that larval zebrafish have a broader frequency sensitivity and complex neural coding in their auditory system than previously thought.

This paper shows that assuming non-negativity in calcium imaging data can miss real neuronal responses and suggests using suite2p for better analysis.

The paper maps neurons involved in water flow perception in larval zebrafish using calcium imaging and microfluidic stimulation, revealing diverse response types and brain regions involved.

This study maps auditory network changes in fmr1-mutant zebrafish, finding increased transmission and reduced filtering of auditory information leading to hypersensitivity.

The paper uses fictive vestibular stimulation and whole-brain calcium imaging to map vestibular-responsive neurons in larval zebrafish, revealing widespread and diverse cellular responses.