Salman E. Qasim

The paper records single neuron activity in the substantia nigra during social learning tasks and finds dopaminergic neurons encode norm prediction error valence more strongly during human vs computer interactions.

This study links reinforcement learning computations to memory by showing hippocampal-cingulate dynamics in humans during a gambling task.

The paper analyzes neural activity and eye movements during naturalistic movie viewing to show group-level coupling between neural populations and eye-movement states.

This study compares place cell detection methods in rats and humans, showing methodological differences affect identified place cell properties and cross-species comparisons.

The paper shows prefrontal circuits coordinate to encode attention-weighted value signals during learning, shaping state representations in complex environments.

This study shows human substantia nigra neurons encode reward expectations through firing rates modulated by trial outcomes and linked to reaction times.

The paper identifies grid-like neuronal activity in the human entorhinal cortex that maps emotional valence and arousal in a two-dimensional space during an emotional memory task.

The paper investigates how neuronal activity in the amygdala and hippocampus enhances emotional memory encoding and shows that inhibiting this activity reduces memory enhancement for emotional stimuli.

This study shows that spatially tuned neurons in the human hippocampus and entorhinal cortex exhibit phase precession during spatial navigation, extending this phenomenon to humans and suggesting a broader role in representing spatial and non-spatial information.

The paper investigates human hippocampal theta oscillations, finding distinct high (8-Hz) and low (3-Hz) frequencies associated with spatial navigation and non-spatial processes respectively.

This study examines how neurons in the human medial-temporal lobe represent spatial targets during navigation, finding that firing rates change based on target position and heading direction.

The paper identifies trace cells in the human entorhinal cortex that remap their spatial fields to represent memory cues during cued recall.

The paper identifies phase-locked neuronal firing in the human medial temporal lobe that encodes navigational goals during a navigation task.