[76912] |
Title: Measurements Inside a Rabbit Sized FFL-MPI Device Using a Gradiometric Receive Coil. |
Written by: J. Stelzner, M. Graeser, A. Bakenecker, A. von Gladiss, G. Bringout, and T. M. Buzug |
in: <em>International Journal on Magnetic Particle Imaging</em>. (2017). |
Volume: <strong>3</strong>. Number: (1), |
on pages: |
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URL: https://journal.iwmpi.org/index.php/iwmpi/article/view/60 |
ARXIVID: |
PMID: |
Note: article
Abstract: This work continues prior investigations on the currently world’s largest field-free line (FFL) magnetic-particle- imaging (MPI) scanner. The bore of the imaging device provides a diameter of 180 mm and is designed to accomodate measurement objects up to rabbit size. It has already been shown that the drive-field coil is capable of conducting an alternating current with a frequency of 25 kHz and an amplitude of above 500 A. With this current input, the drive-field generator produces a magnetic flux density of more than 20 mT amplitude in the center of the bore. As the associated magnetic field strength is already sufficient to excite super-paramagnetic iron oxide nano particles (SPIONs), this work presents an approach to further increase the sensitivity of the system by testing a gradiometric receive-coil arrangement.
[76912] |
Title: Measurements Inside a Rabbit Sized FFL-MPI Device Using a Gradiometric Receive Coil. |
Written by: J. Stelzner, M. Graeser, A. Bakenecker, A. von Gladiss, G. Bringout, and T. M. Buzug |
in: <em>International Journal on Magnetic Particle Imaging</em>. (2017). |
Volume: <strong>3</strong>. Number: (1), |
on pages: |
Chapter: |
Editor: |
Publisher: |
Series: |
Address: |
Edition: |
ISBN: |
how published: |
Organization: |
School: |
Institution: |
Type: |
DOI: |
URL: https://journal.iwmpi.org/index.php/iwmpi/article/view/60 |
ARXIVID: |
PMID: |
Note: article
Abstract: This work continues prior investigations on the currently world’s largest field-free line (FFL) magnetic-particle- imaging (MPI) scanner. The bore of the imaging device provides a diameter of 180 mm and is designed to accomodate measurement objects up to rabbit size. It has already been shown that the drive-field coil is capable of conducting an alternating current with a frequency of 25 kHz and an amplitude of above 500 A. With this current input, the drive-field generator produces a magnetic flux density of more than 20 mT amplitude in the center of the bore. As the associated magnetic field strength is already sufficient to excite super-paramagnetic iron oxide nano particles (SPIONs), this work presents an approach to further increase the sensitivity of the system by testing a gradiometric receive-coil arrangement.
[76912] |
Title: Measurements Inside a Rabbit Sized FFL-MPI Device Using a Gradiometric Receive Coil. |
Written by: J. Stelzner, M. Graeser, A. Bakenecker, A. von Gladiss, G. Bringout, and T. M. Buzug |
in: <em>International Journal on Magnetic Particle Imaging</em>. (2017). |
Volume: <strong>3</strong>. Number: (1), |
on pages: |
Chapter: |
Editor: |
Publisher: |
Series: |
Address: |
Edition: |
ISBN: |
how published: |
Organization: |
School: |
Institution: |
Type: |
DOI: |
URL: https://journal.iwmpi.org/index.php/iwmpi/article/view/60 |
ARXIVID: |
PMID: |
Note: article
Abstract: This work continues prior investigations on the currently world’s largest field-free line (FFL) magnetic-particle- imaging (MPI) scanner. The bore of the imaging device provides a diameter of 180 mm and is designed to accomodate measurement objects up to rabbit size. It has already been shown that the drive-field coil is capable of conducting an alternating current with a frequency of 25 kHz and an amplitude of above 500 A. With this current input, the drive-field generator produces a magnetic flux density of more than 20 mT amplitude in the center of the bore. As the associated magnetic field strength is already sufficient to excite super-paramagnetic iron oxide nano particles (SPIONs), this work presents an approach to further increase the sensitivity of the system by testing a gradiometric receive-coil arrangement.
[76912] |
Title: Measurements Inside a Rabbit Sized FFL-MPI Device Using a Gradiometric Receive Coil. |
Written by: J. Stelzner, M. Graeser, A. Bakenecker, A. von Gladiss, G. Bringout, and T. M. Buzug |
in: <em>International Journal on Magnetic Particle Imaging</em>. (2017). |
Volume: <strong>3</strong>. Number: (1), |
on pages: |
Chapter: |
Editor: |
Publisher: |
Series: |
Address: |
Edition: |
ISBN: |
how published: |
Organization: |
School: |
Institution: |
Type: |
DOI: |
URL: https://journal.iwmpi.org/index.php/iwmpi/article/view/60 |
ARXIVID: |
PMID: |
Note: article
Abstract: This work continues prior investigations on the currently world’s largest field-free line (FFL) magnetic-particle- imaging (MPI) scanner. The bore of the imaging device provides a diameter of 180 mm and is designed to accomodate measurement objects up to rabbit size. It has already been shown that the drive-field coil is capable of conducting an alternating current with a frequency of 25 kHz and an amplitude of above 500 A. With this current input, the drive-field generator produces a magnetic flux density of more than 20 mT amplitude in the center of the bore. As the associated magnetic field strength is already sufficient to excite super-paramagnetic iron oxide nano particles (SPIONs), this work presents an approach to further increase the sensitivity of the system by testing a gradiometric receive-coil arrangement.
[76912] |
Title: Measurements Inside a Rabbit Sized FFL-MPI Device Using a Gradiometric Receive Coil. |
Written by: J. Stelzner, M. Graeser, A. Bakenecker, A. von Gladiss, G. Bringout, and T. M. Buzug |
in: <em>International Journal on Magnetic Particle Imaging</em>. (2017). |
Volume: <strong>3</strong>. Number: (1), |
on pages: |
Chapter: |
Editor: |
Publisher: |
Series: |
Address: |
Edition: |
ISBN: |
how published: |
Organization: |
School: |
Institution: |
Type: |
DOI: |
URL: https://journal.iwmpi.org/index.php/iwmpi/article/view/60 |
ARXIVID: |
PMID: |
Note: article
Abstract: This work continues prior investigations on the currently world’s largest field-free line (FFL) magnetic-particle- imaging (MPI) scanner. The bore of the imaging device provides a diameter of 180 mm and is designed to accomodate measurement objects up to rabbit size. It has already been shown that the drive-field coil is capable of conducting an alternating current with a frequency of 25 kHz and an amplitude of above 500 A. With this current input, the drive-field generator produces a magnetic flux density of more than 20 mT amplitude in the center of the bore. As the associated magnetic field strength is already sufficient to excite super-paramagnetic iron oxide nano particles (SPIONs), this work presents an approach to further increase the sensitivity of the system by testing a gradiometric receive-coil arrangement.
[76912] |
Title: Measurements Inside a Rabbit Sized FFL-MPI Device Using a Gradiometric Receive Coil. |
Written by: J. Stelzner, M. Graeser, A. Bakenecker, A. von Gladiss, G. Bringout, and T. M. Buzug |
in: <em>International Journal on Magnetic Particle Imaging</em>. (2017). |
Volume: <strong>3</strong>. Number: (1), |
on pages: |
Chapter: |
Editor: |
Publisher: |
Series: |
Address: |
Edition: |
ISBN: |
how published: |
Organization: |
School: |
Institution: |
Type: |
DOI: |
URL: https://journal.iwmpi.org/index.php/iwmpi/article/view/60 |
ARXIVID: |
PMID: |
Note: article
Abstract: This work continues prior investigations on the currently world’s largest field-free line (FFL) magnetic-particle- imaging (MPI) scanner. The bore of the imaging device provides a diameter of 180 mm and is designed to accomodate measurement objects up to rabbit size. It has already been shown that the drive-field coil is capable of conducting an alternating current with a frequency of 25 kHz and an amplitude of above 500 A. With this current input, the drive-field generator produces a magnetic flux density of more than 20 mT amplitude in the center of the bore. As the associated magnetic field strength is already sufficient to excite super-paramagnetic iron oxide nano particles (SPIONs), this work presents an approach to further increase the sensitivity of the system by testing a gradiometric receive-coil arrangement.