Pal Atanu, Arachchige Chamila Lakmal Munasinghe
Cambridge Colorectal Unit, Cambridge University Hospitals NHS Foundation Trust, Cambridge, UK.
Colombo South Teaching Hospital, Kalubowila, Sri Lanka.
J Robot Surg. 2025 Sep 18;19(1):617. doi: 10.1007/s11701-025-02789-1.
Robotic surgery now involves more robots of different 'types'. Training so far has been type-specific and delivered by the manufacturer. From this context emerges the need for robotic training earlier in a surgical career with content that includes cross-platform generic principles. This timely review determines the extent to which these needs are being met.
A systematic search identified studies on curricula for surgeons in training.
Of 79 studies, 25 were included, involving basic skills (6 studies), general surgery (12 studies), gynaecology (4 studies), urology (1 study), and Trans-Oral-Robotic-Surgery (2 studies). Studies varied in size (4-70 participants), were largely observational, based in high-income countries, and used da Vinci. Teaching methods varied. Basic robotic and device training used virtual reality (VR), inanimate models, and team training. Procedural training involved synthetic models, surgical videos and robotic access in the operating room. Outcome measures included reactions, technical skills measurement, comparison to expert performance, and real-world activity (e.g., participation in robotic surgery, robotic certification).
This review captures the cumulative nature of surgical education. The sequence involves simulation, real-world participation, metric benchmarks, certification, and service delivery. No study here captured all steps. Studies were small, predominantly from the US, on one robot type, and resource-intensive. This restricts generalisability. A global solution to robotic training should be scalable, of high educational value yet lean on resources, and cover the commonality across robot types. Training embedded in real-world service delivery is sustainable and would also facilitate training transition from industry to institution, towards a cross-platform curriculum.
如今,机器人手术涉及更多不同“类型”的机器人。到目前为止,培训一直是特定类型的,由制造商提供。由此产生了在外科职业生涯早期进行机器人培训的需求,其内容应包括跨平台通用原则。这项及时的综述确定了这些需求得到满足的程度。
通过系统检索确定了有关外科住院医师课程的研究。
在79项研究中,纳入了25项,涉及基本技能(6项研究)、普通外科(12项研究)、妇科(4项研究)、泌尿外科(1项研究)和经口机器人手术(2项研究)。研究规模各异(4 - 70名参与者),大多为观察性研究,来自高收入国家,且使用达芬奇机器人。教学方法各不相同。基本的机器人和设备培训使用虚拟现实(VR)、无生命模型和团队培训。程序培训涉及合成模型、手术视频以及手术室中的机器人操作。结果测量包括反应、技术技能测量、与专家表现的比较以及实际活动(例如,参与机器人手术、机器人认证)。
本综述体现了外科教育的累积性。其流程包括模拟、实际参与、指标基准、认证和服务提供。这里没有一项研究涵盖所有步骤。研究规模较小,主要来自美国,针对一种机器人类型,且资源密集。这限制了研究结果的普遍性。机器人培训的全球解决方案应具有可扩展性、高教育价值且资源消耗少,并涵盖不同机器人类型的共性。融入实际服务提供的培训是可持续的,也将有助于培训从行业向机构的转变,朝着跨平台课程发展。