Publications by authors named "S Habli"

To achieve a comprehensive understanding of spontaneous brain dynamics in humans, acquisition of intrinsic activity across both cortical and subcortical regions is necessary. Here we present advanced whole-brain, resting-state functional magnetic resonance imaging (rs-fMRI) data acquired at 7 Tesla with 1.5 mm isotropic voxel resolution.

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Decades of research have greatly improved our understanding of intrinsic human brain organization in terms of functional networks and the transmodal hubs within the cortex at which they converge. However, substrates of multinetwork integration in the human subcortex are relatively uncharted. Here, we leveraged recent advances in subcortical atlasing and ultra-high field (7 T) imaging optimized for the subcortex to investigate the functional architecture of 14 individual structures in healthy adult males and females with a fully data-driven approach.

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Response inhibition and interference resolution are often considered subcomponents of an overarching inhibition system that utilizes the so-called cortico-basal-ganglia loop. Up until now, most previous functional magnetic resonance imaging (fMRI) literature has compared the two using between-subject designs, pooling data in the form of a meta-analysis or comparing different groups. Here, we investigate the overlap of activation patterns underlying response inhibition and interference resolution on a within-subject level, using ultra-high field MRI.

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Article Synopsis
  • - This study explored the link between sleep health and cognitive control in the brain using fMRI data from 81 healthy adults, highlighting how sleep quality affects brain activity during cognitive tasks.
  • - Results showed that poorer sleep health correlated with heightened and widespread brain activation during reactive cognitive control, suggesting a "hyper-reactive" state in response to cognitive demands.
  • - Additionally, it was found that longer task engagement led to increased activation in those with poor sleep quality, while shorter sleep duration was tied to reduced brain activation and worse task performance, indicating potential inefficiencies in neural processing.
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