Physical and Virtual Robotic Cells in Industry 4.0 Towards Industry 5.0: An XR-Based Conceptual Framework

V. Kuts, Maulshree Singh, S. Alsamhi, D. Devine, Niall Murray
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引用次数: 1

Abstract

The Digital Twin (DT) in the manufacturing domain is already the everyday tool for visualizing the various industrial systems, equipment, and produced products. When designing a new manufacturing unit or enlarging an existing factory, it is important to do so without affecting the manufacturing process flow itself. There are opportunities through simulation and digital manufacturing to plan and optimize this design process. Within usage of the actual physical machinery data gathered from the Industrial Internet of Things (IIoT) sensors and feeding to the DT, optimizing the layout can be done more precisely and effectively. However, there is no way to test the potential equipment simultaneously with the physical one in real-time. This paper aims to propose a Mixed Reality (MR) based system framework and toolkit, which will enable physical industrial robots to interact with virtual equipment and other virtual robots. This way, via Virtual Reality (VR), it will be possible to design a system layout. Furthermore, via the Augmented Reality (AR) view, it will be possible to simulate the interaction between multiple robots by enhancing the possibilities of the physical environment and using the new precise scale real-time design method.
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从工业4.0到工业5.0的物理和虚拟机器人单元:一个基于xr的概念框架
数字孪生(DT)在制造领域已经成为可视化各种工业系统、设备和生产产品的日常工具。在设计新的制造单元或扩大现有工厂时,重要的是在不影响制造流程本身的情况下这样做。通过仿真和数字化制造,有机会规划和优化这一设计过程。利用从工业物联网(IIoT)传感器收集的实际物理机械数据,并将其馈送给DT,可以更精确、更有效地优化布局。然而,目前还没有办法同时对潜在设备和物理设备进行实时测试。本文旨在提出一种基于混合现实(MR)的系统框架和工具包,使物理工业机器人能够与虚拟设备和其他虚拟机器人进行交互。这样,通过虚拟现实(VR),将有可能设计一个系统布局。此外,通过增强现实(AR)视图,可以通过增强物理环境的可能性和使用新的精确比例实时设计方法来模拟多个机器人之间的交互。
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