质子疗法
束流扫描
医学物理学
放射治疗
工作流程
放射治疗计划
质子
计算机科学
医学
核医学
核物理学
物理
外科
数据库
作者
Harald Paganetti,Chris Beltran,Stefan Both,Lei Dong,J. Flanz,Keith M. Furutani,Clemens Grassberger,David R. Grosshans,Antje Knopf,Johannes A. Langendijk,Håkan Nyström,Katia Parodi,Bas W. Raaymakers,Christian Richter,Gabriel O. Sawakuchi,Marco Schippers,Simona F. Shaitelman,B Teo,Jan Unkelbach,Patrick Wohlfahrt,Antony Lomax
标识
DOI:10.1088/1361-6560/abcd16
摘要
Abstract The treatment of cancer with proton radiation therapy was first suggested in 1946 followed by the first treatments in the 1950s. As of 2020, almost 200 000 patients have been treated with proton beams worldwide and the number of operating proton therapy (PT) facilities will soon reach one hundred. PT has long moved from research institutions into hospital-based facilities that are increasingly being utilized with workflows similar to conventional radiation therapy. While PT has become mainstream and has established itself as a treatment option for many cancers, it is still an area of active research for various reasons: the advanced dose shaping capabilities of PT cause susceptibility to uncertainties, the high degrees of freedom in dose delivery offer room for further improvements, the limited experience and understanding of optimizing pencil beam scanning, and the biological effect difference compared to photon radiation. In addition to these challenges and opportunities currently being investigated, there is an economic aspect because PT treatments are, on average, still more expensive compared to conventional photon based treatment options. This roadmap highlights the current state and future direction in PT categorized into four different themes, ‘improving efficiency’, ‘improving planning and delivery’, ‘improving imaging’, and ‘improving patient selection’.
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