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满足辐射防护需求:诊断成像

Meeting the Needs for Radiation Protection: Diagnostic Imaging.

作者信息

Frush Donald P

机构信息

*1905 McGovern-Davison Children's Health Center, Duke University Medical Center, Durham, NC 27710.

出版信息

Health Phys. 2017 Feb;112(2):214-219. doi: 10.1097/HP.0000000000000605.

DOI:10.1097/HP.0000000000000605
PMID:28027164
Abstract

Radiation and potential risk during medical imaging is one of the foremost issues for the imaging community. Because of this, there are growing demands for accountability, including appropriate use of ionizing radiation in diagnostic and image-guided procedures. Factors contributing to this include increasing use of medical imaging; increased scrutiny (from awareness to alarm) by patients/caregivers and the public over radiation risk; and mounting calls for accountability from regulatory, accrediting, healthcare coverage (e.g., Centers for Medicare and Medicaid Services), and advisory agencies and organizations as well as industry (e.g., NEMA XR-29, Standard Attributes on CT Equipment Related to Dose Optimization and Management). Current challenges include debates over uncertainty with risks with low-level radiation; lack of fully developed and targeted products for diagnostic imaging and radiation dose monitoring; lack of resources for and clarity surrounding dose monitoring programs; inconsistencies across and between practices for design, implementation and audit of dose monitoring programs; lack of interdisciplinary programs for radiation protection of patients; potential shortages in personnel for these and other consensus efforts; and training concerns as well as inconsistencies for competencies throughout medical providers' careers for radiation protection of patients. Medical care providers are currently in a purgatory between quality- and value-based imaging paradigms, a state that has yet to mature to reward this move to quality-based performance. There are also deficits in radiation expertise personnel in medicine. For example, health physics academic programs and graduates have recently declined, and medical physics residency openings are currently at a third of the number of graduates. However, leveraging solutions to the medical needs will require money and resources, beyond personnel alone. Energy and capital will need to be directed to:• innovative and cooperative cross-disciplinary institutional/practice oversight of and guidance for the use of diagnostic imaging (e.g., radiology, surgical specialties, cardiologists, and intensivists);• initiatives providing practical benchmarks (e.g., dose index registries);• comprehensive (consisting of access, integrity, metrology, analytics, informatics) and effective and efficient dose monitoring programs;• collaboration with industry;• improved use of imaging, such as through decision support combined with evidence-based appropriateness for imaging use;• integration with e-health such as medical records;• education, including information extending beyond the medical imaging community that is relevant to patients, public, and providers and administration;• identification of opportunities for alignment with salient media and advocacy organizations to deliver balanced information regarding medical radiation and risk;• open lines of communication between medical radiation experts and appropriate bodies such as the U.S. Environmental Protection Agency, the U.S. Food and Drug Administration, and the Joint Commission to assure appropriate guidance on documents and actions originating from these organizations; and• increased grant funding to foster translational work that advances understanding of low-level radiation and biological effects.

摘要

医学成像过程中的辐射及潜在风险是成像领域最为重要的问题之一。正因如此,对问责制的需求日益增长,包括在诊断和图像引导程序中合理使用电离辐射。促成这一情况的因素包括:医学成像使用的增加;患者/护理人员及公众对辐射风险的审查日益严格(从意识到警觉);监管、认证、医疗保健覆盖机构(如医疗保险和医疗补助服务中心)、咨询机构及组织以及行业(如美国国家电气制造商协会XR - 29,与剂量优化和管理相关的CT设备标准属性)对问责制的呼声越来越高。当前的挑战包括:关于低水平辐射风险不确定性的争论;缺乏针对诊断成像和辐射剂量监测的充分开发且有针对性的产品;剂量监测项目缺乏资源且相关情况不明确;剂量监测项目在设计、实施和审核方面的实践存在不一致;缺乏针对患者辐射防护的跨学科项目;这些及其他共识性工作可能存在人员短缺;以及培训问题,并且在医疗服务人员整个职业生涯中,关于患者辐射防护能力的要求也存在不一致。医疗服务提供者目前处于基于质量和基于价值的成像模式之间的困境,这种状态尚未成熟到足以奖励向基于质量的绩效转变。医学领域的辐射专业人员也存在短缺。例如,健康物理学学术项目和毕业生数量最近有所下降,而医学物理住院医师职位目前仅为毕业生数量的三分之一。然而,利用解决医疗需求的方案不仅需要人员,还需要资金和资源。能源和资金需要用于:

  • 对诊断成像的使用进行创新且合作的跨学科机构/实践监督与指导(如放射学、外科专科、心脏病专家和重症监护专家);

  • 提供实用基准的倡议(如剂量指数登记处);

  • 全面(包括获取、完整性、计量学、分析、信息学)且有效高效的剂量监测项目;

  • 与行业的合作;

  • 改进成像的使用,例如通过决策支持结合基于证据的成像使用适宜性;

  • 与电子健康(如医疗记录)的整合;

  • 教育,包括向患者、公众、提供者及管理人员提供超出医学成像领域相关的信息;

  • 确定与重要媒体和倡导组织保持一致的机会,以提供关于医学辐射和风险的平衡信息;

  • 在医学辐射专家与适当机构(如美国环境保护局、美国食品药品监督管理局和联合委员会)之间建立开放的沟通渠道,以确保对这些组织发布的文件和行动给予适当指导;

  • 增加资助资金,以促进推动对低水平辐射及其生物效应理解的转化工作。

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Meeting the Needs of the Nation for Radiation Protection: Summary of the 52nd Annual Meeting of the National Council on Radiation Protection and Measurements.满足国家对辐射防护的需求:国家辐射防护与测量委员会第52届年会总结
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引用本文的文献

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Maximizing Benefit and Minimizing Risk in Medical Imaging Use: An Educational Primer for Health Care Professions Students.医学影像使用中利益最大化与风险最小化:面向医护专业学生的教育入门指南。
J Med Educ Curric Dev. 2018 Sep 10;5:2382120518798812. doi: 10.1177/2382120518798812. eCollection 2018 Jan-Dec.