Becerra Jacob A, Roohani Idean, Parikh Neil U, Jolibois Marah I, Kondra Katelyn, Swerdlow Mark, Nicholson Luke T, Carey Joseph N
From the Keck School of Medicine of USC, Los Angeles, CA.
Albany Medical College, Albany, NY.
Ann Plast Surg. 2025 May 1;94(5S Suppl 3):S474-S483. doi: 10.1097/SAP.0000000000004311.
The COVID-19 pandemic and duty hour restrictions illuminated a role for surgical simulation in hand surgery training that permits meaningful technical experience outside the operating room. Implementation of surgical simulation infrastructure alongside clinical training accounting for complexity and cost should be considered. This systematic review analyzes cadaveric, benchtop, 3D-printed, augmented/virtual reality, and animal models that may effectively simulate hand surgical techniques and procedures with subjective or objective competence assessment.
A systematic review was conducted according to PRISMA-P guidelines using the following databases: PubMed, Medline, Scopus, Embase, Web of Science, and Cochrane. Selected search terms included procedures relevant to hand surgery and various simulation training modalities. Inclusion criteria were English-language peer-reviewed articles about surgical simulation techniques or hand surgery-related training. Abstracts, conference proceedings, non-English literature, and reviews were excluded. Data, including skills and techniques taught and assessed, model type, equipment, cost, and emphasis placed in training for each article, were entered into an electronic database. Additional articles were identified through references from the initial search.
Our search criteria identified 2745 articles, 39 of which met the inclusion criteria. Models were described with the following frequency: synthetic benchtop/3D printed (41.0%), animal (25.6%), cadaveric (17.9%), augmented and virtual reality (AR/VR; 10.3%), and other computer simulation (10.3%). Three models incorporated both a physical benchtop and AR/VR components. The procedures most represented by the simulation tools assessed include tendon repair (30.8%), fracture fixation (25.6%), wrist arthroscopy (15.4%), and carpal tunnel release (15.4%). Of all articles, 51.3% evaluated the efficacy of the educational tool. Of these, 40.0% were evaluated via subjective methods only, 10.0% via objective methods, and 50% via both. Eighty-seven percent of articles emphasized the importance of surgical simulation in a surgeon's training.
A diverse collection of hand surgical simulation models exists for the practice of various aspects of hand surgery. The existing literature demonstrates their utility for increasing expertise with surgical techniques and procedures in a low-risk setting. Integration into surgical training will depend on program time and budget constraints.
新型冠状病毒肺炎疫情和值班时间限制凸显了手术模拟在手部手术培训中的作用,它能在手术室之外提供有意义的技术经验。应考虑在临床培训的同时建立手术模拟基础设施,并兼顾其复杂性和成本。本系统评价分析了尸体模型、台式模型、3D打印模型、增强/虚拟现实模型以及动物模型,这些模型可以通过主观或客观的能力评估有效地模拟手部手术技术和操作。
根据PRISMA-P指南,使用以下数据库进行系统评价:PubMed、Medline、Scopus、Embase、Web of Science和Cochrane。选定的检索词包括与手部手术相关的操作以及各种模拟训练方式。纳入标准为关于手术模拟技术或手部手术相关培训的英文同行评审文章。排除摘要、会议论文、非英文文献和综述。将数据(包括所教授和评估的技能与技术、模型类型、设备、成本以及每篇文章在培训中所强调的内容)录入电子数据库。通过对初始检索的参考文献进行进一步检索,确定了其他文章。
我们的检索标准共识别出2745篇文章,其中39篇符合纳入标准。各模型的出现频率如下:合成台式/3D打印模型(41.0%)、动物模型(25.6%)、尸体模型(17.9%)、增强和虚拟现实模型(AR/VR;10.3%)以及其他计算机模拟模型(10.3%)。有三个模型同时包含实体台式组件和AR/VR组件。评估的模拟工具所涉及最多的操作包括肌腱修复(30.8%)、骨折固定(25.6%)、腕关节镜检查(15.4%)和腕管松解术(15.4%)。在所有文章中,51.3%评估了教育工具的有效性。其中,40.0%仅通过主观方法评估,10.0%通过客观方法评估,50%通过两种方法评估。87%的文章强调了手术模拟在外科医生培训中的重要性。
存在多种手部手术模拟模型,可用于手部手术各个方面的实践。现有文献表明,它们在低风险环境下提高手术技术专长方面具有实用性。将其纳入手术培训将取决于项目的时间和预算限制。