Overview
Medical Optics
Optoacoustic imaging
Soft Matter Physics
Research projects
Last update: 29.03.2017
Optoacoustic imaging
Optoacoustic imaging
Medical imaging is a key factor to early disease detection and patient-tailored therapy with the goal to reduce patient distress and health care cost. Among the various available techniques ultrasound has many advantages such as being real-time, cheap, safe, and easy to use, but difficulties in differential diagnosis often makes subsequent use of more expensive or less safe methods such as MRI or CT mandatory.

The vision of the Optoacoustic Imaging Team is the advancement of ultrasound far beyond the state-of-the-art, augmenting conventional ultrasound with novel ultrasound-based contrast modes.

• Optoacoustic imaging detects optically absorbing structures inside the optically turbid tissue via the detection of thermoelastically generated ultrasound when irradiating the tissue with short laser pulses. This allows e.g. the display of blood oxygenation in a spatially resolved way, which adds significant diagnostic value to conventional ultrasound. Within an NF project and within the European fp7 project “FULLPHASE”, we develop cutting-edge technology to bring OAI to successful clinical application.

• Speed of sound is a promising disease marker for e.g. cancer or liver fibrosis, but can to date only be measured in ultrasound transmission tomography of the female breast. Within the NF-founded Ambizione project “Computed Ultrasound Tomography in Echo mode - CUTE” we develop a novel technique where speed of sound can be imaged in reflection mode and therefore on any part of the human body using conventional ultrasound equipment. This has great potential not only as a novel imaging modality, but will also improve conventional ultrasound because resolution crucially depends on accurate knowledge of sound speed.

Our goal is the combination of conventional ultrasound, OAI and CUTE in a single device which will unify the virtues of real-time operability and patient safety with the diagnostic accuracy of multimodal imaging. For this purpose we are provided with state-of-the-art research ultrasound scanners which will in near future also allow first clinical pilot studies.
 
Etter Cyril   Contact  
Division:Biomedical Photonics
Group:Optoacoustic imaging
Status:Master student
 
Held Kai Gerrit   Contact  
Portrait Kai Gerrit Held
Division:Biomedical Photonics
Group:Optoacoustic imaging
Status:Ph.D. student
 
Jaeger Michael   Contact  
Portrait Michael Jaeger
Division:Biomedical Photonics
Group:Optoacoustic imaging
Status:Head of group
 
Kuriakose Maju   Contact  
Division:Biomedical Photonics
Group:Optoacoustic imaging
Status:Postdoc
 
Petrosyan Tigran   Contact  
Portrait Tigran Petrosyan
Division:Biomedical Photonics
Group:Optoacoustic imaging
Status:Ph.D. student
 
Schweizer Tobias   Contact  
Portrait Tobias Schweizer
Division:Biomedical Photonics
Group:Optoacoustic imaging
Status:Master student
 
Spadin Florentin   Contact  
Portrait Florentin Spadin
Division:Biomedical Photonics
Group:Optoacoustic imaging
Status:Ph.D. student
 
Ulrich Leonie   Contact  
Portrait Leonie Ulrich
Division:Biomedical Photonics
Group:Optoacoustic imaging
Status:Ph.D. student