Navab Nassir, Martin-Gomez Alejandro, Seibold Matthias, Sommersperger Michael, Song Tianyu, Winkler Alexander, Yu Kevin, Eck Ulrich
Computer Aided Medical Procedures & Augmented Reality, Technical University Munich, DE-85748 Garching, Germany.
Laboratory for Computational Sensing and Robotics, Johns Hopkins University, Baltimore, MD 21218, USA.
J Imaging. 2022 Dec 23;9(1):4. doi: 10.3390/jimaging9010004.
Three decades after the first set of work on Medical Augmented Reality (MAR) was presented to the international community, and ten years after the deployment of the first MAR solutions into operating rooms, its exact definition, basic components, systematic design, and validation still lack a detailed discussion. This paper defines the basic components of any Augmented Reality (AR) solution and extends them to exemplary Medical Augmented Reality Systems (MARS). We use some of the original MARS applications developed at the Chair for Computer Aided Medical Procedures and deployed into medical schools for teaching anatomy and into operating rooms for telemedicine and surgical guidance throughout the last decades to identify the corresponding basic components. In this regard, the paper is not discussing all past or existing solutions but only aims at defining the principle components and discussing the particular domain modeling for MAR and its design-development-validation process, and providing exemplary cases through the past in-house developments of such solutions.
在第一套关于医学增强现实(MAR)的研究成果向国际社会展示三十年后,以及在首个MAR解决方案应用于手术室十年后,其确切定义、基本组件、系统设计和验证仍缺乏详细讨论。本文定义了任何增强现实(AR)解决方案的基本组件,并将其扩展到典型的医学增强现实系统(MARS)。在过去几十年里,我们使用了一些在计算机辅助医疗程序主席办公室开发的原始MARS应用程序,这些应用程序已部署到医学院用于解剖学教学,并应用于手术室用于远程医疗和手术指导,以确定相应的基本组件。在这方面,本文并非讨论所有过去或现有的解决方案,而仅旨在定义主要组件,讨论MAR的特定领域建模及其设计-开发-验证过程,并通过过去此类解决方案的内部开发提供示例案例。