Summary of the work programme

For therapies employing electrically active implants, numerical models are central in determining the resulting electric field distribution in the targeted tissue. Only multi-scale models that also include interacting bioelectrical, biochemical, biomechanical and thermal effects meet the specific character of biological tissue. We will investigate and advance appropriate finite element-based micro- and macroscopic models for bone, cartilage and deep brain as well as scale-bridging techniques and, furthermore, methods for uncertainty quantification as the dielectric tissue properties exhibit large variations. The simulation models will contribute to derive best-possible and robust inter-individual stimulation parameters, and, in turn, a safer therapy planning.

Cooperation projects

A01 / A03 / A04 / A05 / A06 / B01 / B02 / B03 / B05 / B06 / B07 / C01 / C02 / C03 / C04 / S01 / INF

Summary of the work programme

For therapies employing electrically active implants, numerical models are central in determining the resulting electric field distribution in the targeted tissue. Only multi-scale models that also include interacting bioelectrical, biochemical, biomechanical and thermal effects meet the specific character of biological tissue. We will investigate and advance appropriate finite element-based micro- and macroscopic models for bone, cartilage and deep brain as well as scale-bridging techniques and, furthermore, methods for uncertainty quantification as the dielectric tissue properties exhibit large variations. The simulation models will contribute to derive best-possible and robust inter-individual stimulation parameters, and, in turn, a safer therapy planning.