Cardiovascular Medicine
Ultrasound imaging: ultrasound is a powerful, cost-effective imaging option for cardiovascular diagnosis, as well as for treatment planning and guidance. Ultrasound overcomes the limitations of alternative imaging technologies providing a solution that does not use ionizing radiations (unlike CT, nuclear scintigraphy, and X-ray) and does not pose structural and logistic limitations due to strict electromagnetic-compatibility requirements (unlike MRI). Therefore, ultrasound is perfectly suitable for perioperative imaging and for long-term monitoring. Several projects are ongoing in this research area with the aim of introducing new technical advances for improved diagnosis and treatment. All our research builds on deep understanding and modeling of the full measurement chain, from the underlying (patho)physiology, to the electromechanical conversion and ultrasound physics, up to the image formation strategy. Special emphasis is given on those innovations that can ultimately be translated into new solutions enabling long-term monitoring. Main research areas of are:
- Mechanical and photoacoustic characterization of tissue properties aimed at the characterization of the vascular wall and atherosclerotic plaques.
- Multi-parametric characterization of mechanical and perfusion properties of the cardiac walls aimed at optimizing the ablation procedures for treatment of cardiac arrhythmias.
- Continuous hemodynamic monitoring by adaptive ultrasound beam forming.
- Analysis of ventricular flow and pressure patterns by contrast-enhanced ultrasound imaging.
- Multi-perspective analysis of cardiac and vascular (e.g. aorta) structures for improved diagnostic evaluation.
Ultrasound imaging
Ultrasound is a powerful, cost-effective imaging option for cardiovascular diagnosis, as well as for treatment planning and guidance. Ultrasound overcomes the limitations of alternative imaging technologies providing a solution that does not use ionizing radiations (unlike CT, nuclear scintigraphy, and X-ray) and does not pose structural and logistic limitations due to strict electromagnetic-compatibility requirements (unlike MRI). Therefore, ultrasound is perfectly suitable for perioperative imaging and for long-term monitoring.
MAIN RESEARCH AREAS
- Mechanical and photoacoustic characterization of tissue properties aimed at the characterization of the vascular wall and atherosclerotic plaques.
- Multi-parametric characterization of mechanical and perfusion properties of the cardiac walls aimed at optimizing the ablation procedures for treatment of cardiac arrhythmias.
- Continuous hemodynamic monitoring by adaptive ultrasound beam forming.
- Analysis of ventricular flow and pressure patterns by contrast-enhanced ultrasound imaging.
- Multi-perspective analysis of cardiac and vascular (e.g. aorta) structures for improved diagnostic evaluation.
Many projects are ongoing in this research area with the aim of introducing new technical advances for improved diagnosis and treatment. All our research builds on deep understanding and modeling of the full measurement chain, from the underlying (patho)physiology, to the electromechanical conversion and ultrasound physics, up to the image formation strategy. Special emphasis is given on those innovations that can ultimately be translated into new solutions enabling long-term monitoring.
E/MTIC PROJECT POSTERS
List of our PhDs, EngDs and PDs
Powered by people, Driven by research
Within e/MTIC, a vibrant community of researchers brings our projects to life. PhD candidates, EngD trainees, postdocs, and more, all pushing the boundaries of their fields together. Meet the people behind the innovation below:
Contact
-
Visiting address
MultiMedia Paviljoen 0.41Horsten 15612AX EindhovenNetherlands -
Postal address
Department of Electrical EngineeringPO Box 5135600MB EindhovenNetherlands -
Team lead or secretary