Anthony M. Harris

Polysynaptic signal propagation in networked neural masses

This study examines polysynaptic signal propagation in neural mass models across different dynamical regimes and benchmarks results against empirical data.

A joint alpha power-phase dynamic shapes visual sensitivity

This study investigates how alpha-band oscillations affect visual sensitivity by combining power and phase in a model of pulsed-inhibition, finding that power suppresses sensitivity more than phase.

Evaluating oscillatory mechanisms underlying flexible neural communication in the human brain

The paper evaluates neural oscillatory mechanisms for communication in the human brain using MEG data, finding that power and phase coherence in specific frequency bands correlate with communication patterns.

Individual differences in perceptual capacity depend on aperiodic slope, not alpha oscillations

This paper investigates the neural mechanisms of perceptual capacity limits, finding that aperiodic slope, not alpha oscillations, predicts individual differences in subitizing capacity.

Oscillatory dynamics of sustained attention states

The paper identifies neural dynamics of sustained attention states using EEG data from a continuous performance task, finding reduced midfrontal theta oscillations during attention lapses.

Detecting behavioural oscillations with increased sensitivity: A modification of Brookshire's (2022) AR-surrogate method

This paper modifies Brookshire's AR-surrogate method to improve sensitivity in detecting behavioural oscillations, finding significant oscillations in reanalysed datasets.

Effects of oscillation phase on discrimination performance in a visual tilt illusion

The paper investigates how oscillation phase affects orientation perception in a visual tilt illusion, finding robust fluctuations in perception across different phases of alpha and theta oscillations.

Diminished distractor filtering with increased perceptual load and sustained effort explains attention deficit in post-stroke fatigue

This study investigates attention deficits in post-stroke fatigue by showing that higher fatigue severity is linked to reduced suppression of neural responses to distractors under increased perceptual load and sustained effort.