AI-coded radiation therapy software requires unique quality assurance

IF 2.5 4区 医学 Q3 RADIOLOGY, NUCLEAR MEDICINE & MEDICAL IMAGING
Alon Witztum, Yi Wang, Dongxu Wang
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引用次数: 0

Abstract

Software is an inseparable part of modern radiation therapy (RT), running everything from treatment planning and record-and-verify systems to the small scripts that physicists write to bridge gaps between clinical systems. Increasingly, software codes are crafted with the help of artificial intelligence (AI): large language models (LLMs) can now generate, modify, test, and document the software on which patient care depends. This prompts a question for our profession, known for its focus on quality assurance (QA) and safety: does software written with AI assistance demand a QA strategy of its own, distinct from the checks we already apply to any clinical software? This question spans the full range of software encountered in the clinic, from FDA-cleared commercial products where development QA rests with the manufacturer, to in-house scripts and tools where the physicist is often both the developer and the end user. The question is not whether such software must be verified and validated (it must), but whether AI's involvement in writing the code changes what that verification should look like, and by whom it should be performed, if it is beyond what we already require for any clinical software. To examine this emerging question, we invited two medical physicists to argue the opposing sides of the proposition: “AI-coded radiation therapy software requires unique QA.” Arguing for the proposition is Alon Witztum, DPhil, DABR; arguing against the proposition is Yi Wang, PhD, DABR.

Dr. Alon Witztum is a medical physicist and Associate Professor in the Department of Radiation Oncology at the University of California, San Francisco (UCSF). He earned his DPhil in Oncology from the University of Oxford, completed his clinical residency in medical physics at UCSF, and is board-certified by the American Board of Radiology. His work centers on data-driven innovation, clinical automation, and toxicity and outcome modeling. In his position as Director of Radiation Oncology Reporting & Analytics at UCSF he develops informatics pipelines and tools for the clinic, research, quality improvement, and operations. He has contributed to textbooks and given invited talks on the use of AI in radiotherapy QA. As part of the AAPM he serves on the Big Data Subcommittee and the working group on MPPG 20: patient-specific QA for dynamic and intensity modulated RT.

Dr. Yi Wang is a medical physicist from the Department of Radiation Oncology at Massachusetts General Hospital (MGH) and an Assistant Professor of Radiation Oncology at Harvard Medical School (HMS) in Boston, MA. He is certified in Therapeutic Radiologic Physics by the American Board of Radiology (ABR). He earned his Ph.D. in Biomedical Engineering from the University of Michigan in 2009 and completed the Harvard Medical Physics Residency Program in 2012. Since then, he has been working as a faculty physicist in the Department of Radiation Oncology at MGH. Locally, he leads an AI Lab and serves as the Director of the Mass General Brigham (MGB) Undergraduate Fellowship Program in Medical Physics. As an internationally recognized expert on AI for RT, he serves in multiple AI-related committees, task groups, and working groups in the American Association of Physicists in Medicine (AAPM), including the Machine Intelligence Subcommittee, Ad Hoc Advisory Committee on Artificial Intelligence Boot Camps (AHAIBC), the Vice Chair of Task Group 384 (Clinical Implementation of Automated Segmentation for Adaptive Radiation Therapy), the Chair of the Working Group on Generative Artificial Intelligence (WGGenAI), and the Chair of Task Group 477 (Harmonizing Terminology of Generative Artificial Intelligence in Radiation Oncology and Radiology). He authored over 40 articles and book chapters and edited two scientific books on AI. He serves as an Associate Section Editor and sits on the Editorial Board for Practical Radiation Oncology (PRO).

Dongxu Wang developed the concept and contributed to editing. Alon Witztum and Yi Wang contributed to writing and editing.

The authors declare no conflicts of interest.

人工智能编码的放射治疗软件需要独特的质量保证。
软件是现代放射治疗(RT)不可分割的一部分,从治疗计划、记录和验证系统到物理学家为弥合临床系统之间的差距而编写的小脚本,软件都在运行。越来越多的软件代码是在人工智能(AI)的帮助下编写的:大型语言模型(llm)现在可以生成、修改、测试和记录患者护理所依赖的软件。这给我们这个以质量保证(QA)和安全著称的行业提出了一个问题:与我们已经应用于任何临床软件的检查不同,用人工智能辅助编写的软件是否需要自己的质量保证策略?这个问题涵盖了临床中遇到的所有软件,从fda批准的商业产品(开发QA由制造商完成)到内部脚本和工具(物理学家通常既是开发人员又是最终用户)。问题不在于这样的软件是否必须经过验证(它必须),而是人工智能参与编写代码是否会改变验证的样子,以及如果它超出了我们对任何临床软件的要求,那么应该由谁来执行验证。为了研究这个新出现的问题,我们邀请了两位医学物理学家来讨论这个命题的对立面:“人工智能编码的放射治疗软件需要独特的QA。”支持这一观点的是Alon Witztum,哲学博士,DABR;反对这一主张的是王毅博士。Alon Witztum是加州大学旧金山分校(UCSF)放射肿瘤学的医学物理学家和副教授。他获得了牛津大学肿瘤学博士学位,在加州大学旧金山分校完成了医学物理学临床住院医师,并获得了美国放射学委员会的认证。他的工作集中在数据驱动的创新,临床自动化,毒性和结果建模。在UCSF担任放射肿瘤学报告与分析主任期间,他开发了用于临床、研究、质量改进和操作的信息学管道和工具。他撰写了教科书,并应邀就人工智能在放疗质量保证中的应用发表了演讲。作为AAPM的一员,他在大数据小组委员会和MPPG 20工作组任职:动态和强度调制rt的患者特异性QA。王毅是麻省总医院(MGH)放射肿瘤科的医学物理学家,也是马萨诸塞州波士顿的哈佛医学院(HMS)放射肿瘤学助理教授。他获得了美国放射学委员会(ABR)的治疗放射物理学认证。他于2009年获得密歇根大学生物医学工程博士学位,并于2012年完成哈佛医学物理住院医师项目。从那时起,他一直在MGH放射肿瘤科担任教职物理学家。在当地,他领导着一个人工智能实验室,并担任麻省总医院(MGB)医学物理学本科奖学金项目主任。作为国际公认的人工智能RT专家,他在美国医学物理学家协会(AAPM)的多个人工智能相关委员会、任务组和工作组任职,包括机器智能小组委员会、人工智能训练营特设咨询委员会(AHAIBC)、384任务组副主席(适应性放射治疗自动分割的临床实施)。生成式人工智能工作组(WGGenAI)主席,以及477任务组(协调放射肿瘤学和放射学中生成式人工智能术语)主席。他撰写了40多篇关于人工智能的文章和书籍章节,并编辑了两本有关人工智能的科学书籍。他是实用放射肿瘤学(PRO)的副编辑和编辑委员会成员。王东旭发展了这一概念,并参与了编辑工作。阿隆·维兹图姆和王毅参与了本文的写作和编辑。作者声明无利益冲突。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
CiteScore
3.60
自引率
19.00%
发文量
331
审稿时长
3 months
期刊介绍: Journal of Applied Clinical Medical Physics is an international Open Access publication dedicated to clinical medical physics. JACMP welcomes original contributions dealing with all aspects of medical physics from scientists working in the clinical medical physics around the world. JACMP accepts only online submission. JACMP will publish: -Original Contributions: Peer-reviewed, investigations that represent new and significant contributions to the field. Recommended word count: up to 7500. -Review Articles: Reviews of major areas or sub-areas in the field of clinical medical physics. These articles may be of any length and are peer reviewed. -Technical Notes: These should be no longer than 3000 words, including key references. -Letters to the Editor: Comments on papers published in JACMP or on any other matters of interest to clinical medical physics. These should not be more than 1250 (including the literature) and their publication is only based on the decision of the editor, who occasionally asks experts on the merit of the contents. -Book Reviews: The editorial office solicits Book Reviews. -Announcements of Forthcoming Meetings: The Editor may provide notice of forthcoming meetings, course offerings, and other events relevant to clinical medical physics. -Parallel Opposed Editorial: We welcome topics relevant to clinical practice and medical physics profession. The contents can be controversial debate or opposed aspects of an issue. One author argues for the position and the other against. Each side of the debate contains an opening statement up to 800 words, followed by a rebuttal up to 500 words. Readers interested in participating in this series should contact the moderator with a proposed title and a short description of the topic
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