Spatial locations can be encoded and maintained in working memory using high-precision,
fine-grained representations that are cognitively demanding, or coarse and less demanding …

Previous work has demonstrated a distinction between maintenance of two types of spatial
information in working memory (WM): spatial locations and spatial relations. While a body of …

Our ability to remember locations in space (spatial working memory) and our ability to direct
attention to those locations (spatial attention) are two fundamental and closely related …

Working Memory (WM) enables us to maintain and directly manipulate mental
representations, yet we know little about the neural implementation of this privileged online …

Sustained neural activity during the delay phase of spatial working memory tasks is
compelling evidence for the neural correlate of active storage and maintenance of spatial …

Demands on visuospatial working memory are a ubiquitous part of everyday life. As such,
significant efforts have been made to understand how the brain responds to these demands …

Mapping of the underlying neural mechanisms of visuo-spatial working memory (WM) has
been shown to consistently elicit activity in right hemisphere dominant fronto-parietal …

Working memory (WM) tasks engage a network of brain regions that includes primary,
unimodal, and multimodal associative cortices. Little is known, however, about whether task …

Although subregions of frontal and parietal cortex both contribute and coordinate to support
working memory (WM) functions, their distinct contributions remain elusive. Here, we …

Abstract Representations in working memory need to be flexibly transformed to adapt to our
dynamic environment and variable task demands. Recent work has demonstrated that …