Progress in Understanding Radiofrequency Heating and Burn Injuries for Safer MR Imaging

RF electromagnetic wave exposure during MRI scans induces heat and occasionally causes burn injuries to patients. Among all the types of physical injuries that have occurred during MRI examinations, RF burn injuries are the most common ones. The number of RF burn injuries increases as the static mag...

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Veröffentlicht in:Magnetic Resonance in Medical Sciences 2023, Vol.22(1), pp.7-25
Hauptverfasser: Tang, Minghui, Yamamoto, Toru
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description RF electromagnetic wave exposure during MRI scans induces heat and occasionally causes burn injuries to patients. Among all the types of physical injuries that have occurred during MRI examinations, RF burn injuries are the most common ones. The number of RF burn injuries increases as the static magnetic field of MRI systems increases because higher RFs lead to higher heating. The commonly believed mechanisms of RF burn injuries are the formation of a conductive loop by the patient’s posture or cables, such as an electrocardiogram lead; however, the mechanisms of RF burn injuries that occur at the contact points, such as the bore wall and the elbow, remain unclear. A comprehensive understanding of RF heating is needed to address effective countermeasures against all RF burn injuries for safe MRI examinations. In this review, we summarize the occurrence of RF burn injury cases by categorizing RF burn injuries reported worldwide in recent decades. Safety standards and regulations governing RF heating that occurs during MRI examinations are presented, along with their theoretical and physiological backgrounds. The experimental assessment techniques for RF heating are then reviewed, and the development of numerical simulation techniques is explained. In addition, a comprehensive theoretical interpretation of RF burn injuries is presented. By including the results of recent experimental and numerical simulation studies on RF heating, this review describes the progress achieved in understanding RF heating from the standpoint of MRI burn injury prevention.
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Among all the types of physical injuries that have occurred during MRI examinations, RF burn injuries are the most common ones. The number of RF burn injuries increases as the static magnetic field of MRI systems increases because higher RFs lead to higher heating. The commonly believed mechanisms of RF burn injuries are the formation of a conductive loop by the patient’s posture or cables, such as an electrocardiogram lead; however, the mechanisms of RF burn injuries that occur at the contact points, such as the bore wall and the elbow, remain unclear. A comprehensive understanding of RF heating is needed to address effective countermeasures against all RF burn injuries for safe MRI examinations. In this review, we summarize the occurrence of RF burn injury cases by categorizing RF burn injuries reported worldwide in recent decades. Safety standards and regulations governing RF heating that occurs during MRI examinations are presented, along with their theoretical and physiological backgrounds. The experimental assessment techniques for RF heating are then reviewed, and the development of numerical simulation techniques is explained. In addition, a comprehensive theoretical interpretation of RF burn injuries is presented. By including the results of recent experimental and numerical simulation studies on RF heating, this review describes the progress achieved in understanding RF heating from the standpoint of MRI burn injury prevention.</description><identifier>ISSN: 1347-3182</identifier><identifier>EISSN: 1880-2206</identifier><identifier>DOI: 10.2463/mrms.rev.2021-0047</identifier><identifier>PMID: 35228437</identifier><language>eng</language><publisher>Japan: Japanese Society for Magnetic Resonance in Medicine</publisher><subject>Burns ; Burns - etiology ; Burns - prevention &amp; control ; Cables ; EKG ; Elbow ; Electrocardiography ; Electromagnetic radiation ; Heating ; Hot Temperature ; Humans ; Injuries ; Injury prevention ; Magnetic fields ; Magnetic resonance imaging ; Magnetic Resonance Imaging - methods ; magnetic resonance safety ; Mathematical models ; numerical simulation ; Phantoms, Imaging ; Radio frequency heating ; Radio Waves - adverse effects ; radiofrequency burn ; radiofrequency heating ; Review ; Simulation ; specific absorption rate</subject><ispartof>Magnetic Resonance in Medical Sciences, 2023, Vol.22(1), pp.7-25</ispartof><rights>2022 by Japanese Society for Magnetic Resonance in Medicine</rights><rights>2023. 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Among all the types of physical injuries that have occurred during MRI examinations, RF burn injuries are the most common ones. The number of RF burn injuries increases as the static magnetic field of MRI systems increases because higher RFs lead to higher heating. The commonly believed mechanisms of RF burn injuries are the formation of a conductive loop by the patient’s posture or cables, such as an electrocardiogram lead; however, the mechanisms of RF burn injuries that occur at the contact points, such as the bore wall and the elbow, remain unclear. A comprehensive understanding of RF heating is needed to address effective countermeasures against all RF burn injuries for safe MRI examinations. In this review, we summarize the occurrence of RF burn injury cases by categorizing RF burn injuries reported worldwide in recent decades. 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subjects Burns
Burns - etiology
Burns - prevention & control
Cables
EKG
Elbow
Electrocardiography
Electromagnetic radiation
Heating
Hot Temperature
Humans
Injuries
Injury prevention
Magnetic fields
Magnetic resonance imaging
Magnetic Resonance Imaging - methods
magnetic resonance safety
Mathematical models
numerical simulation
Phantoms, Imaging
Radio frequency heating
Radio Waves - adverse effects
radiofrequency burn
radiofrequency heating
Review
Simulation
specific absorption rate
title Progress in Understanding Radiofrequency Heating and Burn Injuries for Safer MR Imaging
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