Biomedical Imaging
Biomedical imaging specializes in developing MRI, ultrasound and optical imaging technologies to advance imaging capabilities, gain new biological insights and apply these methods clinically across various medical departments.
This research spans from technical development to clinical application, aiming to enhance understanding of complex medical conditions and significantly impact patient care through ongoing innovation and collaboration.
Possible Careers
- Imaging hardware development engineer
- Image acquisition and processing engineer
- Machine learning image analysis engineer
- Imaging systems and management engineer
Areas of Specialization
Explore the specialized areas where our transformative research is shaping the future of medicine.
Magnetic Resonance Imaging (MRI)
Magnetic Resonance Imaging (MRI) works by using powerful magnets to align the tiny magnetic fields of water molecules in the body. A brief burst of radio waves then makes these aligned molecules “spin” and emit their own radio signals. An antenna detects these signals. Because the body is mostly water, MRI can generate images from these signals. Various contrast mechanisms allow doctors to distinguish between different healthy and diseased tissues. Our researchers are developing new imaging methods and hardware to improve resolution and decrease scan times, and to detect pathology previously missed.
Our specific research into MRI technology includes:
- Image acquisition and reconstruction innovation
- Quantitative tissue characterization and mapping
- Novel contrast mechanism development
- Time-resolved imaging
- Radio Frequency (RF) antenna and receiver system design
- Multi-nuclear imaging (23Na)
- Spectroscopy
- Machine learning image analysis
Ultrasound
Ultrasound research focuses on the development of new hardware and methods for biomedical applications of high-frequency sound. While advancing ultrasound imaging is a primary focus, our researchers are also exploring alternative novel applications of biomarker amplification and targeted drug delivery. Some of these applications include:
- Micro-electromechanical systems
- Biomarker amplification and localization using ultrasound
- Ultrasound-triggered drug and gene delivery
- High-frame-rate ultrasound
Wearable Biomedical Systems
Wearable Biomedical Systems involve the development of wearable sensors and devices that monitor health, prevent injuries, and assist with medical conditions. This includes technologies like exoskeletons, which enhance mobility and strength, and neuro-prosthetic systems, which replace or enhance neural functions to improve patient outcomes.