Electromagnetics in Health Technology
The research combines numerical analysis of electromagnetic fields with anatomical and functional modelling, having multidisciplinary applications in biomedical engineering (device development), clinical practice (diagnosis and rehabilitation), and neurosciences (brain research).
The first focus area of the research is developing computational tools for modelling non-invasive brain stimulation. In the future, the methods will help scientists to carefully craft stimulation protocols rather than relying on trial and error, improving the safety and efficacy of stimulation and allowing individually planned treatment.
The group also uses computer simulations to study the electromagnetic safety of new technologies and aid the development of novel health care applications .
The research group is led by Assistant Professor Ilkka Laakso.
Group members
Juho Pokki
Latest publications
Intercomparison of the averaged induced electric field in learning-based human head models exposed to low-frequency magnetic fields
Material Coarsening Strategy for Structured Meshless Multigrid Method for Dosimetry in Anisotropic Human Body Models
Magnetic microrheometry of tumor-relevant stiffness levels and probabilistic quantification of viscoelasticity differences inside 3D cell culture matrices
Characterizing Aptamers with Reconfigurable Chiral Plasmonic Assemblies
Estimation method for the anisotropic electrical conductivity of in vivo human muscles and fat between 10 kHz and 1 MHz
Special Section on Recent Advances in Simulation Techniques and Their Applications for Electronics
The Effect of Inter-pulse Interval on TMS Motor Evoked Potentials in Active Muscles
Magneto- and electrophosphene thresholds in the retina: a dosimetry modeling study
DNA‐Engineered Hydrogels with Light‐Adaptive Plasmonic Responses
Nanoscale Tracking Combined with Cell-Scale Microrheology Reveals Stepwise Increases in Force Generated by Cancer Cell Protrusions
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