Stealth RF energy harvesting in MRI using selective shielding
Purpose To utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or safety. Methods Power harvesting is performed by RF induction in a resonant coil. Resulting RF field distortion in the subject is canceled by a...
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Published in | Magnetic resonance in medicine Vol. 92; no. 1; pp. 406 - 415 |
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Main Authors | , |
Format | Journal Article |
Language | English |
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01.07.2024
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Abstract | Purpose
To utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or safety.
Methods
Power harvesting is performed by RF induction in a resonant coil. Resulting RF field distortion in the subject is canceled by a selective shield that couples to the harvester while being transparent to the RF transmitter. Such shielding is designed with the help of electromagnetic simulation. A shielded harvester of 3 cm diameter is implemented, assessed on the bench, and tested in a 3T MRI system, recording power yield during typical scans.
Results
The concept of selective shielding is confirmed by simulation. Bench tests show effective power harvesting in the presence of the shield. In the MRI system, it is confirmed that selective shielding virtually eliminates RF perturbation. In scans with the harvester immediately adjacent to a phantom, up to 100 mW of average power are harvested without affecting image quality.
Conclusion
Selective shielding enables stealthy RF harvesting which can be used to supply wireless power to on‐body devices during MRI. |
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AbstractList | Purpose
To utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or safety.
Methods
Power harvesting is performed by RF induction in a resonant coil. Resulting RF field distortion in the subject is canceled by a selective shield that couples to the harvester while being transparent to the RF transmitter. Such shielding is designed with the help of electromagnetic simulation. A shielded harvester of 3 cm diameter is implemented, assessed on the bench, and tested in a 3T MRI system, recording power yield during typical scans.
Results
The concept of selective shielding is confirmed by simulation. Bench tests show effective power harvesting in the presence of the shield. In the MRI system, it is confirmed that selective shielding virtually eliminates RF perturbation. In scans with the harvester immediately adjacent to a phantom, up to 100 mW of average power are harvested without affecting image quality.
Conclusion
Selective shielding enables stealthy RF harvesting which can be used to supply wireless power to on‐body devices during MRI. To utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or safety.PURPOSETo utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or safety.Power harvesting is performed by RF induction in a resonant coil. Resulting RF field distortion in the subject is canceled by a selective shield that couples to the harvester while being transparent to the RF transmitter. Such shielding is designed with the help of electromagnetic simulation. A shielded harvester of 3 cm diameter is implemented, assessed on the bench, and tested in a 3T MRI system, recording power yield during typical scans.METHODSPower harvesting is performed by RF induction in a resonant coil. Resulting RF field distortion in the subject is canceled by a selective shield that couples to the harvester while being transparent to the RF transmitter. Such shielding is designed with the help of electromagnetic simulation. A shielded harvester of 3 cm diameter is implemented, assessed on the bench, and tested in a 3T MRI system, recording power yield during typical scans.The concept of selective shielding is confirmed by simulation. Bench tests show effective power harvesting in the presence of the shield. In the MRI system, it is confirmed that selective shielding virtually eliminates RF perturbation. In scans with the harvester immediately adjacent to a phantom, up to 100 mW of average power are harvested without affecting image quality.RESULTSThe concept of selective shielding is confirmed by simulation. Bench tests show effective power harvesting in the presence of the shield. In the MRI system, it is confirmed that selective shielding virtually eliminates RF perturbation. In scans with the harvester immediately adjacent to a phantom, up to 100 mW of average power are harvested without affecting image quality.Selective shielding enables stealthy RF harvesting which can be used to supply wireless power to on-body devices during MRI.CONCLUSIONSelective shielding enables stealthy RF harvesting which can be used to supply wireless power to on-body devices during MRI. PurposeTo utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or safety.MethodsPower harvesting is performed by RF induction in a resonant coil. Resulting RF field distortion in the subject is canceled by a selective shield that couples to the harvester while being transparent to the RF transmitter. Such shielding is designed with the help of electromagnetic simulation. A shielded harvester of 3 cm diameter is implemented, assessed on the bench, and tested in a 3T MRI system, recording power yield during typical scans.ResultsThe concept of selective shielding is confirmed by simulation. Bench tests show effective power harvesting in the presence of the shield. In the MRI system, it is confirmed that selective shielding virtually eliminates RF perturbation. In scans with the harvester immediately adjacent to a phantom, up to 100 mW of average power are harvested without affecting image quality.ConclusionSelective shielding enables stealthy RF harvesting which can be used to supply wireless power to on‐body devices during MRI. To utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or safety. Power harvesting is performed by RF induction in a resonant coil. Resulting RF field distortion in the subject is canceled by a selective shield that couples to the harvester while being transparent to the RF transmitter. Such shielding is designed with the help of electromagnetic simulation. A shielded harvester of 3 cm diameter is implemented, assessed on the bench, and tested in a 3T MRI system, recording power yield during typical scans. The concept of selective shielding is confirmed by simulation. Bench tests show effective power harvesting in the presence of the shield. In the MRI system, it is confirmed that selective shielding virtually eliminates RF perturbation. In scans with the harvester immediately adjacent to a phantom, up to 100 mW of average power are harvested without affecting image quality. Selective shielding enables stealthy RF harvesting which can be used to supply wireless power to on-body devices during MRI. |
Author | Bjorkqvist, Oskar Pruessmann, Klaas P. |
Author_xml | – sequence: 1 givenname: Oskar orcidid: 0009-0001-1918-8176 surname: Bjorkqvist fullname: Bjorkqvist, Oskar email: bjoerkqvist@biomed.ee.ethz.ch organization: ETH Zurich and University of Zurich – sequence: 2 givenname: Klaas P. orcidid: 0000-0003-0009-8362 surname: Pruessmann fullname: Pruessmann, Klaas P. organization: ETH Zurich and University of Zurich |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/38411281$$D View this record in MEDLINE/PubMed |
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To utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or... To utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or safety.... PurposeTo utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or... To utilize the transmit radiofrequency (RF) field in MRI as a power source, near or within the field of view but without affecting image quality or... |
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SubjectTerms | Electromagnetic induction Energy harvesting Equipment Design Equipment Failure Analysis Humans Image quality Magnetic resonance imaging Magnetic Resonance Imaging - instrumentation Phantoms, Imaging Power management Power sources Radiation Protection - instrumentation Radio frequency Radio Waves RF harvesting Shielding wireless power |
Title | Stealth RF energy harvesting in MRI using selective shielding |
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