Interactive and Immersive Image-Guided Control of Interventional Manipulators with a Prototype Holographic Interface

C. M. M. Mojica, N. Tsekos, J. D. V. Garcia, Haoran Zhao, I. Seimenis, E. Leiss, D. Shah, A. Webb, Aaron T. Becker, P. Tsiamyrtzis
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引用次数: 2

Abstract

The emerging potential of augmented reality (AR) to improve 3D medical image visualization for diagnosis, by immersing the user into 3D morphology is further enhanced with the advent of wireless head-mounted displays (HMD). Such information-immersive capabilities may also enhance planning and visualization of interventional procedures. To this end, we introduce a computational platform to generate an augmented reality holographic scene that fuses pre-operative magnetic resonance imaging (MRI) sets, segmented anatomical structures, and an actuated model of an interventional robot for performing MRI-guided and robot-assisted interventions. The interface enables the operator to manipulate the presented images and rendered structures using voice and gestures, as well as to robot control. The software uses forbidden-region virtual fixtures that alerts the operator of collisions with vital structures. The platform was tested with a HoloLens HMD in silico. To address the limited computational power of the HMD, we deployed the platform on a desktop PC with two-way communication to the HMD. Operation studies demonstrated the functionality and underscored the importance of interface customization to fit a particular operator and/or procedure, as well as the need for on-site studies to assess its merit in the clinical realm.
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基于原型全息界面的介入机械臂交互式沉浸式图像引导控制
随着无线头戴式显示器(HMD)的出现,增强现实(AR)通过将用户沉浸在3D形态中来改善3D医学图像可视化诊断的新兴潜力进一步增强。这种信息沉浸的能力也可以增强介入程序的规划和可视化。为此,我们引入了一个计算平台来生成增强现实全息场景,该场景融合了术前磁共振成像(MRI)集、分段解剖结构和用于执行MRI引导和机器人辅助干预的介入机器人的驱动模型。该界面使操作员能够使用语音和手势操作呈现的图像和渲染结构,以及机器人控制。该软件使用禁区虚拟装置,提醒操作员与重要结构的碰撞。该平台用HoloLens头戴式显示器进行了测试。为了解决HMD有限的计算能力,我们将平台部署在桌面PC上,与HMD进行双向通信。手术研究证明了该系统的功能,并强调了界面定制的重要性,以适应特定的操作人员和/或程序,以及现场研究的必要性,以评估其在临床领域的优点。
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