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虚拟现实中荧光体数据的新型基于手势的控制系统。

A Novel Gesture-Based Control System for Fluorescence Volumetric Data in Virtual Reality.

机构信息

Department of Biomedical Engineering, Brno University of Technology, Technicka 12, 616 00 Brno, Czech Republic.

出版信息

Sensors (Basel). 2021 Dec 13;21(24):8329. doi: 10.3390/s21248329.

Abstract

With the development of light microscopy, it is becoming increasingly easy to obtain detailed multicolor fluorescence volumetric data. The need for their appropriate visualization has become an integral part of fluorescence imaging. Virtual reality (VR) technology provides a new way of visualizing multidimensional image data or models so that the entire 3D structure can be intuitively observed, together with different object features or details on or within the object. With the need for imaging advanced volumetric data, demands for the control of virtual object properties are increasing; this happens especially for multicolor objects obtained by fluorescent microscopy. Existing solutions with universal VR controllers or software-based controllers with the need to define sufficient space for the user to manipulate data in VR are not usable in many practical applications. Therefore, we developed a custom gesture-based VR control system with a custom controller connected to the FluoRender visualization environment. A multitouch sensor disk was used for this purpose. Our control system may be a good choice for easier and more comfortable manipulation of virtual objects and their properties, especially using confocal microscopy, which is the most widely used technique for acquiring volumetric fluorescence data so far.

摘要

随着光学显微镜技术的发展,获取详细的多色荧光体数据集变得越来越容易。因此,需要将其适当地可视化,这已经成为荧光成像的一个组成部分。虚拟现实 (VR) 技术为可视化多维图像数据或模型提供了一种新方法,使得整个 3D 结构可以直观地观察到,同时可以观察到对象上或对象内部的不同对象特征或细节。随着对成像高级体积数据的需求的增加,对虚拟对象属性控制的需求也在增加;这种情况尤其发生在通过荧光显微镜获得的多色对象上。现有的解决方案是使用通用 VR 控制器或基于软件的控制器,需要为用户在 VR 中操纵数据定义足够的空间,因此在许多实际应用中无法使用。因此,我们开发了一种基于自定义手势的 VR 控制系统,并使用连接到 FluoRender 可视化环境的自定义控制器。为此目的,使用了一个多点触摸传感器盘。我们的控制系统可能是一种更好的选择,用于更轻松、更舒适地操作虚拟对象及其属性,特别是使用共聚焦显微镜,这是迄今为止最广泛用于获取体积荧光数据的技术。

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