Sudario Gabriel, Wray Alisa, Janson Robin
University of California, Irvine, Department of Emergency Medicine, Orange, CA.
Indiana University-Purdue University at Indianapolis, Department of Occupational Therapy, Indianapolis, IN.
J Educ Teach Emerg Med. 2020 Jan 15;5(1):SG1-SG16. doi: 10.21980/J8PH0Z. eCollection 2020 Jan.
The target audience for this small group session is emergency medicine residents, primarily for use in didactic conference. This session can also be utilized with medical students, or faculty looking to review relevant hand anatomy and common injuries.
Three-dimensional (3D) printing is an emerging technology that has the ability to produce highly accurate anatomic, cellular and medical device models. Limited research has shown promise in teaching anatomy,1 congenital heart disease2 and surgical pre-operative planning.3 Despite this potential, there is sparse evidence of 3D printing emergency medicine residency education. The Model of Clinical Practice of Emergency Medicine specifies content for American Board of Emergency Medicine certification and requires proficiency in a wide breadth of medical topics including upper extremity and hand injuries.4 The concepts of hand anatomy and function rely heavily on understanding spatial relationships between bones, tendons and ligaments. The instructional strategy of working with 3D printed hand models aligns with these learning goals. This project seeks to directly incorporate 3D printing into the orthopedic curriculum of emergency medicine residents during a required weekly didactic educational session.
By the end of this session, learners should be able to name and identify all bones of the hand; arrange and construct an anatomically correct bony model of the hand; build functional phalangeal flexor and extensor tendon complexes onto a bony hand model; describe the mechanism of injury, exam findings, and management of the tendon injuries Jersey finger, Mallet finger, and central slip rupture; draw/recreate injury patterns on a bony hand model; and describe the mechanism of injury, exam findings, imaging findings, and management of scapholunate dissociation, perilunate dislocation and lunate dislocation, Bennett's fracture, Rolando fracture, Boxer's fracture and scaphoid.
This session was delivered in a small group session which utilized educational methods grounded in constructivist learning such as complex problem-solving, social negotiation, and spatial learning.
Verbal feedback was obtained after the session.
Overall learners found the session engaging, interactive, and especially useful in demonstrating relevant hand anatomy and injuries. Learners felt that hands-on experience with the hand models reinforced knowledge and helped them better identify injuries in a spatial fashion.
Extremity bony trauma, dislocations/subluxations, tendon injuries.
本次小组课程的目标受众是急诊医学住院医师,主要用于教学会议。该课程也可用于医学生或希望复习相关手部解剖结构和常见损伤的教员。
三维(3D)打印是一项新兴技术,能够制作高度精确的解剖、细胞和医疗设备模型。有限的研究表明,其在解剖学教学、先天性心脏病教学以及外科手术术前规划方面具有潜力。尽管有这种潜力,但关于3D打印在急诊医学住院医师教育中的证据却很少。急诊医学临床实践模式规定了美国急诊医学委员会认证的内容,并要求在包括上肢和手部损伤在内的广泛医学主题方面具备熟练技能。手部解剖结构和功能的概念在很大程度上依赖于对骨骼、肌腱和韧带之间空间关系的理解。使用3D打印手部模型的教学策略与这些学习目标相一致。本项目旨在将3D打印直接纳入急诊医学住院医师骨科课程的每周必修教学课程中。
在本次课程结束时,学习者应能够说出并识别手部的所有骨骼;排列并构建一个解剖结构正确的手部骨骼模型;在手部骨骼模型上构建功能性的指骨屈肌和伸肌腱复合体;描述肌腱损伤(如“球衣指”、“锤状指”和中央束断裂)的损伤机制、检查结果和处理方法;在手部骨骼模型上绘制/重现损伤模式;描述舟月骨分离、月骨周围脱位和月骨脱位、本内特骨折、罗兰多骨折、拳击手骨折和舟骨骨折的损伤机制、检查结果、影像学表现和处理方法。
本次课程以小组形式进行,采用了基于建构主义学习的教育方法,如复杂问题解决、社会协商和空间学习。
课程结束后获得了口头反馈。
总体而言,学习者认为该课程引人入胜、互动性强,尤其在展示相关手部解剖结构和损伤方面非常有用。学习者认为对手部模型的实践操作强化了知识,并帮助他们以空间方式更好地识别损伤。
四肢骨创伤、脱位/半脱位、肌腱损伤。