Jens Haueisen

The paper compares individual and fixed electrocutaneous warning signal parameters during manual work tasks, finding that fixed parameters are effective and reduce muscle twitches.

The paper presents a multichannel LI-TMS array capable of electronically steering electric fields for network-level neuromodulation, achieving cortical fields comparable to tES without scalp contact.

The paper introduces a residual-driven adaptive mesh refinement method for charge-based boundary element modeling to improve accuracy in electrical stimulation and EEG simulations.

This paper improves the localization of auditory evoked fields using reciprocal BEM-FMM, achieving higher accuracy and focality compared to standard BEM methods.

This paper introduces a fast MEG source estimation method using reciprocal relationships and BEM-FMM, achieving high-resolution gain matrices for up to 1 million dipoles.

The paper validates a method to convert spectral evoked-to-background ratio into time-domain signal-to-noise ratio for high-frequency oscillations.

The paper evaluates how varying neck tissue conductivities affect phrenic nerve activation thresholds during non-invasive electrical stimulation using finite element models.

This study compares textile electrodes and TENS electrodes for electrocutaneous warning, finding lower perception thresholds and less muscle twitching with textile electrodes.

The paper develops a BEM-based method to solve EEG/MEG forward problems for high-resolution head models in about 60 seconds.

The paper compares dipole source reconstruction accuracy between 3-layer and 5-layer BEM-FMM models, finding that 3-layer models provide good localization but less accurate orientation, with AMR improving 5-layer accuracy.

This study establishes an in vitro TIS setup using rat cortical neurons and astrocytes, showing that TIS elicits neuronal responses, which are reduced in co-cultures.

This study investigates how transcranial magnetic stimulation affects spatial attention using biophysical modeling and fMRI, finding limited correlation between electric fields and behavior but selective attentional inhibition in some subjects.

This study compares the neurophysiological effects of cathodal tDCS over the primary motor cortex and prefrontal cortex using TMS-EEG, finding dosage-dependent nonlinear effects that are not directly transferable between regions.