The authors develop a method for estimating regional head tissue conductivities in vivo, by
injecting small (1-10/spl mu/A) electric currents into the scalp, and measuring the potentials …

Bioelectric source analysis in the human brain from scalp electroencephalography (EEG)
signals is sensitive to geometry and conductivity properties of the different head tissues. We …

Techniques based on electroencephalography (EEG) measure the electric potentials on the
scalp and process them to infer the location, distribution, and intensity of underlying neural …

The accuracy of forward models for EEG partly depends on the conductivity values of the
head tissues. Yet, the influence of the conductivities on the model output is still not well …

Accurate electroencephalographic (EEG) source localization requires an electrical head
model incorporating accurate geometries and conductivity values for the major head tissues …

The electroencephalogram (EEG) is recorded by sensors physically separated from the
cortex by resistive skull tissue that smooths the potential field recorded at the scalp. This …

Computationally localizing electrical current sources of the electroencephalographic signal
requires a volume conductor model which relates theoretical scalp potentials to the dipolar …

Electroencephalography (EEG) benefits from accurate head models. Dipole source
modelling errors can be reduced from over 1 cm to a few millimetres by replacing generic …

Coherence computed from common reference montages inextricably confounds true
coherence with power and phase at the recording and reference electrodes. Direct …

Computer simulation studies were conducted to test the feasibility of imaging brain electrical
activity from the scalp electroencephalograms. The inhomogeneous three-concentric-sphere …