Khan Rao F H, Dunscombe Peter B
University of Calgary.
J Appl Clin Med Phys. 2016 Mar 8;17(2):573-582. doi: 10.1120/jacmp.v17i2.5864.
Over the last two decades, there has been a concerted effort in North America to organize medical physicists' clinical training programs along more structured and formal lines. This effort has been prompted by the Commission on Accreditation of Medical Physics Education Programs (CAMPEP) which has now accredited about 90 residency programs. Initially the accreditation focused on standardized and higher quality clinical physics training; the development of rounded professionals who can function at a high level in a multidisciplinary environment was recognized as a priority of a radiation oncology physics residency only lately. In this report, we identify and discuss the implementation of, and the essential components of, a radiation oncology physics residency designed to produce knowledgeable and effective clinical physicists for today's safety-conscious and collaborative work environment. Our approach is that of inverse planning, by now familiar to all radiation oncology physicists, in which objectives and constraints are identified prior to the design of the program. Our inverse planning objectives not only include those associated with traditional residencies (i.e., clinical physics knowledge and critical clinical skills), but also encompass those other attributes essential for success in a modern radiation therapy clinic. These attributes include formal training in management skills and leadership, teaching and communication skills, and knowledge of error management techniques and patient safety. The constraints in our optimization exercise are associated with the limited duration of a residency and the training resources available. Without compromising the knowledge and skills needed for clinical tasks, we have successfully applied the model to the University of Calgary's two-year residency program. The program requires 3840 hours of overall commitment from the trainee, of which 7%-10% is spent in obtaining formal training in nontechnical "soft skills".
在过去二十年里,北美地区一直在协同努力,使医学物理师的临床培训项目更具结构性和规范性。这一努力是由医学物理教育项目认证委员会(CAMPEP)推动的,该委员会目前已认证了约90个住院医师培训项目。最初,认证聚焦于标准化和更高质量的临床物理培训;培养能够在多学科环境中高效工作的全面发展的专业人员,直到最近才被视为放射肿瘤物理住院医师培训的优先事项。在本报告中,我们确定并讨论了一个放射肿瘤物理住院医师培训项目的实施情况和基本组成部分,该项目旨在为当今注重安全与协作的工作环境培养知识渊博且高效的临床物理师。我们采用的是逆向规划方法,这对所有放射肿瘤物理师来说都已不陌生,即在项目设计之前确定目标和限制条件。我们的逆向规划目标不仅包括与传统住院医师培训相关的目标(即临床物理知识和关键临床技能),还涵盖在现代放射治疗诊所取得成功所必需的其他属性。这些属性包括管理技能和领导力、教学与沟通技能的正规培训,以及错误管理技术和患者安全方面的知识。我们优化过程中的限制条件与住院医师培训的有限时长和可用培训资源有关。在不影响临床任务所需知识和技能的前提下,我们已成功将该模式应用于卡尔加里大学的两年制住院医师培训项目。该项目要求学员总共投入3840小时,其中7%-10%用于获得非技术性“软技能”的正规培训。