School of Future Technology, China University of Geosciences, Wuhan 430074, China.
School of Mechanical & Electronic Information, China University of Geosciences, Wuhan 430074, China.
Sensors (Basel). 2024 Sep 13;24(18):5962. doi: 10.3390/s24185962.
In the evolving realm of ergonomics, there is a growing demand for enhanced comfortability, visibility, and accessibility in the operation of engineering machinery. This study introduces an innovative approach to assess the ergonomics of a driller's cabin by utilizing a digital human. Through the utilization of inertial motion capture sensors, the method enables the operation of a virtual driller animated by real human movements, thereby producing more precise and realistic human-machine interaction data. Additionally, this study develops a simplified model for the human upper limbs, facilitating the calculation of joint forces and torques. An ergonomic analysis platform, encompassing a virtual driller's cabin and a digital human model, is constructed using Unity 3D. This platform enables the quantitative evaluation of comfortability, visibility, and accessibility. Its versatility extends beyond the current scope, offering substantial support for product development and enhancement.
在不断发展的人体工程学领域,人们对工程机械操作的舒适性、可视性和可及性提出了更高的要求。本研究提出了一种通过数字人体评估钻机驾驶室人体工程学的创新方法。该方法通过使用惯性运动捕捉传感器,实现了由真实人体运动驱动的虚拟钻机的操作,从而产生更精确和真实的人机交互数据。此外,本研究还为人体上肢开发了简化模型,便于计算关节力和力矩。通过使用 Unity 3D 构建了一个包含虚拟钻机驾驶室和数字人体模型的人体工程学分析平台,该平台可以实现舒适性、可视性和可及性的定量评估。其多功能性超出了当前的范围,为产品开发和改进提供了实质性的支持。