Magnetic Particle Imaging: A Resovist based Marking Technology for Guide Wires and Catheters for Vascular Interventions

Magnetic Particle Imaging (MPI) is able to provide high temporal and good spatial resolution, high signal to noise ratio and sensitivity. Furthermore, it is a truly quantitative method as its signal strength is proportional to the concentration of its tracer, superparamagnetic iron oxide nanoparticl...

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Veröffentlicht in:IEEE transactions on medical imaging 2016-04
Hauptverfasser: Haegele, Julian, Cremers, Sjef, Rahmer, Jurgen, Franke, Jochen, Vaalma, Sarah, Heidenreich, Michael, Borgert, Joern, Borm, Paul, Barkhausen, Joerg, Vogt, Florian
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container_title IEEE transactions on medical imaging
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creator Haegele, Julian
Cremers, Sjef
Rahmer, Jurgen
Franke, Jochen
Vaalma, Sarah
Heidenreich, Michael
Borgert, Joern
Borm, Paul
Barkhausen, Joerg
Vogt, Florian
description Magnetic Particle Imaging (MPI) is able to provide high temporal and good spatial resolution, high signal to noise ratio and sensitivity. Furthermore, it is a truly quantitative method as its signal strength is proportional to the concentration of its tracer, superparamagnetic iron oxide nanoparticles (SPIOs), over a wide range practically relevant concentrations. Thus, MPI is proposed as a promising future method for guidance of vascular interventions. To implement this, devices such as guide wires and catheters have to be discernible in MPI, which can be achieved by coating already commercially available devices with SPIOs. In this proof of principle study the feasibility of that approach is demonstrated. First, a Ferucarbotran-based SPIO-varnish was developed by embedding Ferucarbotran into an organic based solvent. Subsequently, the biocompatible varnish was applied to a commercially available guidewire and diagnostic catheter for vascular interventional purposes. In an interventional setting using a vessel phantom, the coating proved to be mechanically and chemically stable and thin enough to ensure normal handling as with uncoated devices. The devices were visualized in 3D on a preclinical MPI demonstrator using a system function based image reconstruction process. The system function was acquired with a probe of the dried varnish prior to the measurements. The devices were visualized with a very hightemporal resolution and a simple catheter/guide wire maneuver was demonstrated.
doi_str_mv 10.1109/TMI.2016.2559538
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