Projects
Head impact biomechanics for protecting the active ageing population KU Leuven
In Europe, the incidence of fatal and hospitalized traumatic brain injury (TBI) is 262/100.000/year. Lately, a significant increase in the proportion of elderly patients suffering TBI has been observed. This can be explained by changing demographics, better health status allowing them to remain fully active, but also by the presumed mechanical vulnerability of the ageing brain and surrounding tissues.
While staying active is rightfully ...
Support preparation ERC-application. University of Antwerp
Neural decoding for brain-machine interfaces KU Leuven
Brain-computer interfaces provide a communication pathway between the human brain and an external machine, typically a computer. Two major approaches exist: invasive or intracranial and non-invasive brain-machine interfaces (BMIs). In the field of intracranial BMIs, attention has mainly been focused on recordings in the motor system.
The aim of this project is to decode neural activity recorded in different cortical areas e.g. the ...
Modeling of invasive cancer-cell force application mechanisms and setup of cancer-cell transvascular mechanobiology experiments KU Leuven
Modeling the role of the cytoskeleton in adipocytes as related to diabesity KU Leuven
Investigation on a critical time window for gait training in stroke rehabilitation. University of Antwerp
Validation of markerless body tracking for real world gait analysis. University of Antwerp
4D Imaging for Mechanobiology KU Leuven
Mechanical forces are critical in shaping a variety of biological processes, and have an important influence on our ability to maintain normal physiological function; the disregulation of these processes leads to degeneration and disease. The ability to recreate and visualize these phenomena in the laboratory is important to understand the basic mechanisms involved, and to guide our strategies for engineering tissues for regenerative medicine ...
Multiscale modeling of experimental regeneration set-ups in skeletal tissue engineering KU Leuven
The aim of the thesis is to develop a multiscale model of osteochondrogenic differentiation in a bioreactor environment and other experimental set-ups typically used in skeletal tissue engineering. The state of mechanical loading around the human ulna, knee joint and growing skeletal tissue in a bioreactor is to be calculated from computational models using finite element method. Subsequently, a computer model of tissue regeneration in ...