Computational Modeling to Advance Novel Medical Isotopes for Radiotheranostics: A DOE-NIH Joint Workshop Executive Summary.

IF 2.5 3区 医学 Q2 BIOLOGY
Jeffrey C Buchsbaum, Henry F VanBrocklin, Reinier Hernandez, Ellen M O'Brien, Heather M Hennkens, Dmitri G Medvedev, Roger W Howell, Freddy E Escorcia, Yuni K Dewaraja, Abhinav K Jha, Anuj J Kapadia, Greeshma Agasthya, Arman Rahmim, Babak Saboury, Kristian Myhre, Sandra Davern
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引用次数: 0

Abstract

The DOE-NIH Joint Workshop on Computational Modeling to Advance Novel Medical Isotopes for Radiotheranostics, held on September 27, 2024, brought together experts from government, academia, and industry to address critical challenges in radionuclide production and clinical translation. The workshop emphasized interdisciplinary collaboration, particularly between the Department of Energy (DOE) and the National Institutes of Health (NIH), to strengthen the domestic isotope supply, streamline regulatory pathways, and further integrate computational tools into radiopharmaceutical therapy (RPT). Key discussions explored the role of AI-driven modeling, machine learning, and digital twin technologies in optimizing dosimetry, dynamically personalizing treatments, and reducing time to clinical adoption. Advances in predictive computational modeling were highlighted as essential for improving radionuclide yield, purity, and synthesis efficiency. Regulatory considerations and equitable access were central themes, with participants advocating for harmonized global standards, adaptive trial designs, and expanded infrastructure for clinical implementation. DOE computational and production infrastructure was emphasized. Future priorities identified include increased investment in radionuclide production infrastructure, expanded workforce development in radiopharmaceutical sciences and computational modeling, and the creation of robust public-private partnerships. The workshop concluded that continued strategic collaboration and sustained resources will be vital for advancing next-generation radiotheranostics, ensuring safe and effective therapies accessible to all patients.

计算建模推进新型放射治疗医学同位素:DOE-NIH联合研讨会执行摘要。
2024年9月27日举行的DOE-NIH计算建模推进放射肿瘤学新型医用同位素联合研讨会汇集了来自政府、学术界和工业界的专家,以解决放射性核素生产和临床转化方面的关键挑战。讲习班强调跨学科合作,特别是能源部与美国国立卫生研究院之间的合作,以加强国内同位素供应,简化监管途径,并进一步将计算工具纳入放射性药物治疗。重点讨论了人工智能驱动的建模、机器学习和数字孪生技术在优化剂量学、动态个性化治疗和缩短临床采用时间方面的作用。预测计算模型的进步被强调为提高放射性核素产量、纯度和合成效率的必要条件。监管方面的考虑和公平获取是中心主题,与会者倡导统一的全球标准、适应性试验设计和扩大临床实施的基础设施。强调DOE计算和生产基础设施。确定的未来优先事项包括增加对放射性核素生产基础设施的投资,扩大放射性制药科学和计算建模方面的劳动力发展,以及建立强有力的公私伙伴关系。研讨会的结论是,持续的战略合作和持续的资源对于推进下一代放射治疗至关重要,确保所有患者都能获得安全有效的治疗。
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
Radiation research
Radiation research 医学-核医学
CiteScore
5.10
自引率
8.80%
发文量
179
审稿时长
1 months
期刊介绍: Radiation Research publishes original articles dealing with radiation effects and related subjects in the areas of physics, chemistry, biology and medicine, including epidemiology and translational research. The term radiation is used in its broadest sense and includes specifically ionizing radiation and ultraviolet, visible and infrared light as well as microwaves, ultrasound and heat. Effects may be physical, chemical or biological. Related subjects include (but are not limited to) dosimetry methods and instrumentation, isotope techniques and studies with chemical agents contributing to the understanding of radiation effects.
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