Albert K. Lee

This study identifies remote replay events in the hippocampus of rats performing a sequential spatial working memory task, showing that these events correlate with planning beyond immediate actions.

The paper shows that weak theta rhythms in the hippocampus can encode position and head orientation without relying on prominent theta rhythms, using an artificial neural network.

This paper develops a low-latency system for assigning single-neuron identities from neural signals, enabling real-time applications in brain-machine interfaces.

This paper demonstrates that rats can navigate virtual environments by voluntarily activating hippocampal representations of remote locations using a brain-machine interface.

The paper investigates how single-neuron selectivity contributes to hierarchical population representations in the prefrontal cortex of rats during a navigational task.

This study shows that place cell activity in the hippocampus is structured by a grid scaffold, challenging the notion of randomness in their responses.

The paper introduces Neuropixels 2.0, a high-density probe for long-term brain recordings, and demonstrates its stability across months in multiple labs and species.

This study shows that prefrontal cortex neurons in rats do not exhibit goal-specific firing patterns during a flexible spatial working memory task, suggesting working memory is not encoded through canonical goal-selective representations.

The paper develops a probabilistic model of hippocampal CA1 representations in mice, showing that field propensity shapes spatial coding across environments and time.