Timothy J. Ebner

The paper characterizes decision-making neural dynamics during spatial navigation in mice by analyzing cortex-wide calcium dynamics across different paradigms.

The paper investigates cerebellar activity during seizures in epileptic mice, finding widespread and pre-ictal engagement of the cerebellum beyond motor-related areas.

This study uses Ca2+ imaging in a SCA8 mouse model to show hyperconnectivity in neocortical networks, with significant changes in sensory and association cortices predicting disease state.

This study compares cortical dynamics during internally- and externally-driven locomotion using wide-field calcium imaging, finding distinct roles for secondary motor cortex in self-initiated movements.

The paper uses Ca2+ imaging to study Purkinje cell networks in the cerebellum, revealing distinct dendritic and somatic activity patterns and their correlation dynamics during behavior.

This paper introduces a cranial exoskeleton that enables mice to navigate physical spaces while recording brain-wide neural activity, achieving natural movement and performance comparable to free behavior.

This study uses wide-field Ca2+ imaging and spatial ICA to show that neocortical functional segmentation is stable across behaviors but flexible at shorter timescales.

This paper introduces eSee-Shells, transparent polymer skulls with integrated electrode arrays for long-term multimodal neural recordings in mice.

This study uses calcium imaging to show that repetitive mild traumatic brain injury in mice causes long-term changes in cortical functional connectivity without affecting cognitive or motor function.

The paper uses calcium imaging to study functional connectivity changes in the cerebral cortex during locomotion in mice, finding increased correlation and causality in premotor regions.

This paper introduces See-Shells, transparent polymer skulls that enable long-term optical access to the mouse cortex for simultaneous monitoring and perturbation of neural activity across multiple regions.