Bradley R. Postle

This paper shows that prioritization in working memory reduces interference by transforming the unprioritized item into an 'unprioritized' state, linked to low-beta frequency oscillations.

This paper investigates how transcranial magnetic stimulation affects neural representations of unprioritized memory items in working memory using EEG and multivariate pattern analysis.

This study investigates active removal from working memory using EEG, finding neural correlates including traveling waves and reduced excitability in perceptual circuits.

The paper investigates neural mechanisms of cognitive control during conflict between visual working memory and perception using EEG and reinforcement-learning models.

This study uses RNNs to simulate WM prioritization, showing context and priority are encoded via distinct mechanisms in neural representations.

The paper investigates neural dynamics during competition between voluntary and involuntary attentional control in visual working memory, showing delayed prioritization and increased frontal midline theta activity.

The paper investigates how the parietal cortex strategically controls context binding in visual working memory through fMRI experiments and multivariate decoding.

The paper uses RNNs to model how stimulus representations in working memory undergo priority-based transformations, finding that these transformations differ between unprioritized and prioritized memory items.

The paper investigates how spontaneous alpha-band amplitude affects subjective visibility and discrimination accuracy in a high-level perceptual task, finding it predicts visibility but not accuracy.

The paper examines alpha-band EEG dynamics during attentional shifts and finds no difference in time course between unattended and irrelevant locations, supporting a secondary-consequence interpretation of attention-related alpha changes.

This paper tests two models of active removal from working memory using fMRI and behavioral tasks, assessing predictions through multivariate encoding modeling and representational similarity analysis.

The paper investigates how context binding affects nonspatial visual working memory by analyzing fMRI signals and behavioral performance during memory tasks.

The paper investigates how delay-period BOLD activity in frontal, parietal, and occipital cortex relates to attractor dynamics in visual working memory, finding that diffusion explains more variance in frontal and parietal activity, while drift explains more in occipital cortex.

This study shows that lateral prefrontal cortex (LPFC) causally supports metacognitive awareness of emotional face orientation but not emotional expression.

The paper investigates how different priority states in visual working memory are represented in the brain using fMRI and multivariate encoding models, finding distinct coding patterns for attended and unattended memory items.

This study investigates how attentional prioritization affects neural representations in visual working memory using fMRI and finds a same-object benefit in feature selection.

This study shows that high confidence in a decision increases serial dependence in orientation estimation, even when confidence is dissociated from actual task performance.

The paper shows that prior knowledge improves visual discrimination and is reflected in alpha-band oscillations and early visual responses.

The paper finds a correlation between metacognitive accuracy in visual perception and visual short-term memory, suggesting a domain-general mechanism when tasks share the same stimulus feature.

This paper reviews clinical and neuroimaging evidence to debate whether consciousness is linked to the frontal or posterior cortex.

The paper identifies a posterior cortical region with low-frequency activity decreases and high-frequency activity correlations with dream content during both NREM and REM sleep.

The paper shows that prestimulus alpha-band power affects visual discrimination confidence but not accuracy in a two-choice orientation discrimination task.

The paper investigates neural correlates of phosphene perception following TMS of human occipital and parietal cortex, finding distinct alpha and beta band oscillations predict perception in these regions.