Cognitive neuroscience relies on two sets of techniques to map the neural networks
underlying cognition in humans: recordings of either regional metabolic changes (fMRI or …

Although non‐invasive techniques provide functional activation maps at ever‐growing
spatio‐temporal precision, invasive recordings offer a unique opportunity for direct …

Electroencephalography (EEG) and functional magnetic resonance imaging (fMRI) are
important tools in cognitive and clinical neuroscience. Combined EEG–fMRI has been …

Background The integration of EEG and fMRI is attractive because of their complementary
precision regarding time and space. But the relationship between the indirect hemodynamic …

The common factor that underlies several types of functional brain imaging is the electric
current of masses of dendrites. The prodigious demands for the energy that is required to …

Oscillations in the gamma-band frequency range have been described to be more closely
connected to hemodynamic changes as assessed with functional magnetic resonance …

Over the last 20years, BOLD-FMRI has proved itself to be a powerful and versatile tool for
the study of the neural substrate underpinning many of our cognitive and perceptual …

Simultaneous recording of electroencephalogram/functional magnetic resonance images
(EEG/fMRI) was applied to identify blood oxygenation level-dependent (BOLD) changes …

Frequency specific synchronisation of neuronal firing within the gamma-band (30–70 Hz)
appears to be a fundamental correlate of both basic sensory and higher cognitive …

Electromagnetic fields as measured with electroencephalogram (EEG) are a direct
consequence of neuronal activity and feature the same timescale as the underlying …