Kelly Ryan R, Mccrackin Mary Ann, Russell Dayvia L, Leddy Lee R, Cray James J, Larue Andamanda C
Research Services, Ralph H Johnson Department of Veterans Affairs Medical Center, Charleston, South Carolina; Departments of Pathology and Laboratory Medicine, Orthopedics, Medical University of South Carolina, Charleston, South Carolina; Departments of Pathology and Laboratory Medicine, Orthopedics, Medical University of South Carolina, Charleston, South Carolina.
Research Services, Ralph H Johnson Department of Veterans Affairs Medical Center, Charleston, South Carolina; Departments of Pathology and Laboratory Medicine, Orthopedics, Medical University of South Carolina, Charleston, South Carolina; Departments of Comparative Medicine, Orthopedics, Medical University of South Carolina, Charleston, South Carolina.
J Am Assoc Lab Anim Sci. 2019 May 1;58(3):321-328. doi: 10.30802/AALAS-JAALAS-18-000090. Epub 2019 Apr 15.
Resources detailing the scope, details, and duration for teaching and learning surgical model development in research are poorly described. Situated learning and instructional scaffolding are useful skill-building tools. Herein, we discuss educational theory in the context of a training paradigm for surgical researchers, using our experience with a nonunion femoral fracture model as an example. Stages of learning include cognitive, associative, and autonomous stages. In surgical training, the cognitive stage involves the acquisition of basic knowledge, including anatomy, surgical approach, instrumentation, and suturing, which can be taught by using books, videos, skeletons, and cadavers. To these basic skills, the associative stage adds advanced techniques-including anesthesia, asepsis, hemostasis, and the full surgical procedure-through mentored nonsurvival surgical experiences. After a mentor has assured competence, trainees perform supervised and then independent survival surgeries to complete the autonomous stage. Through these stages, instructional scaffolding is applied in the context of a situated learning environment in which trainees learn in a layered approach through their own experiences. Thus, the proposed training paradigm is structured to teach trainees how to think and act as surgeons so they can adapt and grow, rather than only to ensure technical competency in a specific model. Development and mastery of complex surgical models may require as long as 6 mo to achieve optimal outcomes, depending on the preexisting skill of the research surgeons, technical difficulty, and the stage of model evolution.
关于研究中外科模型开发教学的范围、细节和持续时间的资源描述匮乏。情境学习和教学支架是有用的技能培养工具。在此,我们以我们在股骨骨不连骨折模型方面的经验为例,在外科研究人员培训范式的背景下讨论教育理论。学习阶段包括认知阶段、关联阶段和自主阶段。在外科培训中,认知阶段涉及基础知识的获取,包括解剖学、手术入路、器械操作和缝合,这些可以通过使用书籍、视频、骨骼和尸体进行教学。在这些基本技能的基础上,关联阶段通过有指导的非存活手术经验增加了先进技术,包括麻醉、无菌操作、止血和完整的手术过程。在导师确认能力后,学员进行监督下的然后是独立的存活手术以完成自主阶段。通过这些阶段,教学支架应用于情境学习环境中,学员通过自身经历以分层方式学习。因此,所提出的培训范式旨在教导学员如何像外科医生一样思考和行动,以便他们能够适应和成长,而不仅仅是确保在特定模型中的技术能力。复杂外科模型的开发和掌握可能需要长达6个月才能取得最佳效果,这取决于研究外科医生的既有技能、技术难度以及模型演进的阶段。