Department of Chemistry, Simon Fraser University, Burnaby, BC, Canada.
Life Sciences Division, TRIUMF, Vancouver, BC, Canada.
Chem Soc Rev. 2024 Oct 28;53(21):10409-10449. doi: 10.1039/d4cs00802b.
Recent clinical success with metal-based radiopharmaceuticals has sparked an interest in the potential of these drugs for personalized medicine. Although often overlooked, the success and global impact of nuclear medicine is contingent upon the purity and availability of medical isotopes, commonly referred to as radiometals. For nuclear medicine to reach its true potential and change patient lives, novel production and purification techniques that increase inventory of radiometals are desperately needed. This tutorial review serves as a resource for those both new and experienced in nuclear medicine by providing a detailed explanation of the foundations for the production and purification of radiometals, stemming from nuclear physics, analytical chemistry, and so many other fields, all in one document. The fundamental science behind targetry, particle accelerators, nuclear reactors, nuclear reactions, and radiochemical separation are presented in the context of the field. Finally, a summary of the latest breakthroughs and a critical discussion of the threats and future potential of the most utilized radiometals is also included. With greater understanding of the fundamentals, fellow scientists will be able to better interpret the literature, identify knowledge gaps or problems and ultimately invent new production and purification pathways to increase the global availability of medical isotopes.
最近金属放射性药物的临床成功引发了人们对这些药物在个性化医疗中应用潜力的兴趣。尽管常常被忽视,但核医学的成功和全球影响力取决于医用同位素(通常称为放射性金属)的纯度和可用性。为了使核医学充分发挥其潜力并改变患者的生活,迫切需要开发新的生产和净化技术,以增加放射性金属的库存。本教程综述为核医学领域的新手和专家提供了一个资源,通过将核物理、分析化学和许多其他领域的基础知识都整合在一篇文档中,详细解释了放射性金属的生产和净化的基础。本文从靶子、粒子加速器、核反应堆、核反应和放射化学分离等方面介绍了放射性金属生产和净化的基础科学。最后,还总结了最新的突破,并对最常用的放射性金属的威胁和未来潜力进行了批判性讨论。通过对基础知识有更深入的了解,同行科学家将能够更好地解读文献,发现知识空白或问题,并最终发明新的生产和净化途径,以增加医用同位素的全球供应。