John C. Bowler

This study shows that structured early training improves generalization and flexible strategy learning in both mice and recurrent neural networks.

This study shows that the medial entorhinal cortex (MEC) is organized along a coding gradient, with neurons shifting between spatial and temporal coding based on task demands.

This study shows that hippocampal time cells adapt their dynamics during learning to reflect cognitive demands related to temporal context discrimination.

behaviorMate provides an open-source, flexible system for precise control of behavioral experiments and data collection through an 'Intranet of Things' approach.

This study uses in vivo imaging to show that MEC and LEC axons to CA1 transmit distinct yet overlapping spatial and goal-related signals during navigation.

This study investigates how medial entorhinal cortex (MEC) time cells contribute to learning context-dependent interval timing behavior through behavioral paradigms and calcium imaging.

The paper investigates how hippocampal neurons rapidly encode new environments through synaptic plasticity mechanisms during novel experiences.

The paper identifies 'cue cells' in the dentate gyrus that encode sensory cues independently of spatial location, alongside traditional 'place cells', revealing a previously overlooked heterogeneity in DG function.