Gordon B. Feld

The paper shows that the brain encodes network structure using distinct brain regions, with hippocampus representing shortest-path distances and retrosplenial complex representing global connectivity.

The paper introduces FASTIMAGES, a benchmark dataset combining MEG and fMRI to evaluate replay detection methods in humans, showing method-specific strengths and cross-modality challenges.

The paper investigates replay detection using TDLM and MEG during post-learning resting states and finds no evidence of replay, suggesting methodological limitations in detecting low-density replay events.

This study shows that high-intensity exercise before sleep enhances memory encoding the next morning, with effects lasting up to 24 hours.

The paper shows that reactivation strength during cued recall decreases with graph distance, only in successful retrieval, suggesting graded clustered reactivation in cognitive maps.

This paper introduces a real-time EEG sleep spindle detection algorithm that enables automated stimulation during sleep spindles with high sensitivity and precision.

The paper introduces inferiority and equivalence tests for fMRI data to complement traditional significance testing, enabling more nuanced interpretation of effect sizes and uncertainty.

The paper investigates how sleep affects memory for graph networks, finding that sleep enhances retention of links between highly connected nodes.

This study investigates the role of mGluR5 in memory processing during sleep and finds that blocking mGluR5 does not affect memory consolidation despite altering sleep oscillations.

The paper shows that sleep does not enhance forgetting of large amounts of declarative memory, contradicting the hypothesis that sleep increases forgetting at high information loads.

This study investigates whether dopaminergic activation is needed for preferential consolidation of reward-related memories during sleep, finding no evidence for such a requirement.

This study shows that mefloquine, a gap junction blocker, impairs sleep-dependent declarative memory consolidation in humans but not procedural memory.

The paper investigates how overnight memory consolidation affects new learning of similar materials, finding that consolidation facilitates rather than interferes with learning, and that D-cycloserine enhances new learning independently of sleep.