[BibTex]

Note: inproceedings

Abstract: Conventional methods to evaluate the size of superparamagnetic iron oxide nanoparticles ({SPIONs}) and their coatings used in magnetic particle imaging ({MPI}) include photon cross-correlation spectroscopy ({PCCS}) [1], atomic force microscopy ({AFM}) [1] and transmission electron microscopy ({TEM}) [2]. There is however still a potential for improvement as they are expensive and only able to analyze small sample quantities. In this work, a new method using electrical impedance spectroscopy is evaluated. With this method, it is possible to analyze macroscopic samples at low costs.

Note: inproceedings

Abstract: Conventional methods to evaluate the size of superparamagnetic iron oxide nanoparticles ({SPIONs}) and their coatings used in magnetic particle imaging ({MPI}) include photon cross-correlation spectroscopy ({PCCS}) [1], atomic force microscopy ({AFM}) [1] and transmission electron microscopy ({TEM}) [2]. There is however still a potential for improvement as they are expensive and only able to analyze small sample quantities. In this work, a new method using electrical impedance spectroscopy is evaluated. With this method, it is possible to analyze macroscopic samples at low costs.

[BibTex]

Note: inproceedings

Abstract: Conventional methods to evaluate the size of superparamagnetic iron oxide nanoparticles ({SPIONs}) and their coatings used in magnetic particle imaging ({MPI}) include photon cross-correlation spectroscopy ({PCCS}) [1], atomic force microscopy ({AFM}) [1] and transmission electron microscopy ({TEM}) [2]. There is however still a potential for improvement as they are expensive and only able to analyze small sample quantities. In this work, a new method using electrical impedance spectroscopy is evaluated. With this method, it is possible to analyze macroscopic samples at low costs.

Note: inproceedings

Abstract: Conventional methods to evaluate the size of superparamagnetic iron oxide nanoparticles ({SPIONs}) and their coatings used in magnetic particle imaging ({MPI}) include photon cross-correlation spectroscopy ({PCCS}) [1], atomic force microscopy ({AFM}) [1] and transmission electron microscopy ({TEM}) [2]. There is however still a potential for improvement as they are expensive and only able to analyze small sample quantities. In this work, a new method using electrical impedance spectroscopy is evaluated. With this method, it is possible to analyze macroscopic samples at low costs.

Note: inproceedings

Abstract: Conventional methods to evaluate the size of superparamagnetic iron oxide nanoparticles ({SPIONs}) and their coatings used in magnetic particle imaging ({MPI}) include photon cross-correlation spectroscopy ({PCCS}) [1], atomic force microscopy ({AFM}) [1] and transmission electron microscopy ({TEM}) [2]. There is however still a potential for improvement as they are expensive and only able to analyze small sample quantities. In this work, a new method using electrical impedance spectroscopy is evaluated. With this method, it is possible to analyze macroscopic samples at low costs.

[BibTex]

Note: inproceedings

Abstract: Conventional methods to evaluate the size of superparamagnetic iron oxide nanoparticles ({SPIONs}) and their coatings used in magnetic particle imaging ({MPI}) include photon cross-correlation spectroscopy ({PCCS}) [1], atomic force microscopy ({AFM}) [1] and transmission electron microscopy ({TEM}) [2]. There is however still a potential for improvement as they are expensive and only able to analyze small sample quantities. In this work, a new method using electrical impedance spectroscopy is evaluated. With this method, it is possible to analyze macroscopic samples at low costs.