Matthew W. Self

The paper shows that pronouns reactivate noun-specific neurons in the human hippocampus during reading, linking memory and language at the single-cell level.

The study shows that the direct and indirect pathways of the basal ganglia have opposing effects on perceptual decisions and cortical activity in mice during visual detection and working memory tasks.

The paper shows how visual cortex neurons adjust their responses to direct inputs and contextual signals through opposing plasticity mechanisms, enhancing improbable inputs or omissions.

This study shows that the superior colliculus in mice is causally involved in figure detection based on contrast, orientation, and phase, with stronger neural responses to figure elements than background elements.

This study shows that chandelier cells in the visual cortex change their function and structure with experience, responding more to arousal-related events and showing plasticity in their connections.

This study shows that theta and gamma oscillations in the medial temporal lobe correlate with short-latency co-firing of neurons during successful episodic memory encoding.

The paper shows that V1 neurons in monkeys and humans respond to occluded scenes using contextual information, with representations resembling those in humans.

The paper uses intracranial recordings to show that the insula encodes pain intensity from different stimuli with distinct spatial and temporal coding patterns.

The paper investigates how objecthood in natural images influences neuronal activity in early visual cortex, showing that object boundaries and interiors elicit more activity than background.

The paper shows that human single neurons encode sequence order through phase-locked spikes relative to theta oscillations, similar to rodent phase precession.

This study shows human hippocampal neurons represent temporal information during structured tasks and gaps, supporting a role in episodic memory.

This study shows that delayed V1 neuronal responses are necessary for figure-ground segregation in mice, with VIP interneurons playing a key role through disinhibitory circuits.