A. David Redish

The paper examines hippocampal activity in rats during foraging under threat, finding distinct neural representations for reactive escape and anticipatory decision-making.

The paper evaluates four E/I balance metrics using field potential recordings from rat and mouse brain regions, finding broadband and high gamma power consistently correlate with E/I.

This study examines how systemic diazepam affects hippocampal circuit function in rats during behavior, finding altered inhibition, theta and low-gamma power, and reduced spatial precision.

The paper tracks spatial tuning changes in mouse cortex neurons over time and finds coordinated representational drift across different cortical regions.

This study shows that lateral and ventral orbitofrontal cortex in rats encode opposing representations of reward value and opportunity costs to guide sequential foraging decisions.

This study shows that dopamine in the nucleus accumbens reflects decision confidence and future value during re-evaluation and change-of-mind in mice.

The paper shows that the dorsal hippocampus represents both threats and rewards during approach-avoidance conflicts in rats, with diazepam altering these representations.

The paper shows that environmental complexity affects decision-making systems in rats by altering neural activity in hippocampus, dorsolateral striatum, and medial prefrontal cortex.

The paper measures excitation-inhibition balance using spectral components of local field potentials in rats during decision making, finding an inverse relationship with broadband spectral power.

This paper introduces a salience-based model of reward prediction errors that simulates addictive behaviors, including reduced sensitivity to negative consequences and steeper delay discounting.

The paper identifies distinct cortical activation patterns during spatial navigation strategies in mice using mesoscale calcium dynamics.

The paper identifies four functionally distinct subregions in rodent medial prefrontal cortex that process economic decision information differently along a dorso-ventral gradient.

The paper tests a model proposing that sunk cost sensitivity in foraging tasks is due to task performance mechanics, finding it incompatible with data and supporting actual sunk cost sensitivity.

The paper shows that APP mice, a model of Alzheimer's disease, exhibit sex-specific changes in decision-making strategies, with impaired procedural cognition and reliance on deliberation, linked to striatal amyloid-beta pathology.