Browse the search results

The first non-invasive technique to assess the action of brain clearance mechanisms, driven by the perivascular inflow of cerebrospinal fluid, has been developed using magnetic resonance imaging.

Non-invasive manipulation of endogenously coupled neural rhythms enhances human control of social-emotional actions.

Psychedelics induce a pattern of cortical activity very similar to the one observed during visual perception, despite participants had shut eyes.

High-definition anodal transcranial stimulation alleviated cognitive deficits, affected dopaminergic neurotransmission factors, increased expression of several neurotrophic factors involving brain-derived neurotrophic factor (BDNF), and activated hippocampal neurogenesis.

Pupil diameter cannot accurately predict spiking activity in the locus coeruleus on a moment-by-moment basis, and exhibited large fluctuations to identical stimulation in the LC.

Neuronal loss can be studied by passing electrical current through the same electrodes used for neuron measurement without disrupting recording ability.

The use of high-density optical brain imaging in listeners with cochlear implants shows increased activity in frontal cortex during speech perception compared to those with normal hearing.

Human hippocampal connectivity to network afferents varies continuously with the phase of the local theta oscillation, confirming a putative mechanism by which neural oscillations modulate human hippocampal function.

Development of imaging methods to capture neural activity and structure through the intact cuticle using 2-photon and 3-photon excitation in the genetic model organism, Drosophila melanogaster.

Whole-brain computational modelling, incorporating novel ML-based parameter estimation techniques, reveals how transcranial magnetic stimulation-evoked brain responses are driven at earlier timepoints by local echoes of the external stimulus, and at later timepoints by large-scale network reverberation across the connectome.