Elizabeth A. Buffalo

This study identifies the laminar organization of the primate hippocampus using physiological landmarks and reveals distinct firing patterns and functional coupling between cell types.

The paper shows that neural activity across multiple brain regions reflects Bayesian belief updating during a multi-dimensional inference task in monkeys.

This study shows that the primate hippocampus segments experience into discrete events through abrupt population activity shifts, reflecting abstract task structure rather than specific sensory features.

This study compares age-related working memory deficits in macaques and marmosets, finding similar patterns that support marmosets as a valid model for cognitive aging research.

The paper investigates how different memory systems contribute to recalling the temporal order of events, showing distinct neural dynamics in the hippocampus and orbitofrontal cortex.

This study investigates learning-to-learn in a neural network model, showing schema formation in a low-dimensional subspace that accelerates learning across similar problems.

This paper introduces Non-Stationary Dynamic Mode Decomposition (NS-DMD) to analyze time-varying spatiotemporal data, demonstrating its application to neural recordings from a non-human primate.

The paper improves intracranial viral vector delivery in non-human primates by developing a bench-side model to optimize convection-enhanced delivery (CED) techniques.

The paper investigates how working memory capacity and forgetting rate relate to event segmentation and memory performance in different tasks.

The paper shows that neurons in the monkey entorhinal cortex encode time since image onset with varying time constants and also represent image content, supporting episodic memory.

This study shows that entorhinal cortex grid cells respond to covert spatial attention without physical movement, suggesting their role in cognitive functions beyond navigation.

This study shows that primate entorhinal cortex neurons represent gaze position in multiple spatial reference frames, including visual image and head position alignment.