S. Gratz-Kelly, Daniel Philippi, Bettina Fasolt, S. Nalbach, Paul Motzki
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引用次数: 0
摘要
随着人机交互技术的不断进步,为确保操作设备和工人之间的安全协作而开发的界面越来越重要,对工业领域的影响也越来越大。为了实现适当的操作,交互装置必须具备传感和执行能力。介电弹性体(DE)等智能材料是多功能集成应用的首选。介电弹性体重量轻、能量密度高、伸缩性强,适用于许多不同的操作领域,如运动跟踪、力传感、触觉反馈和发声,可用于开发高度集成的纺织品用户界面。本文展示了基于 DE 元件开发新型智能手套原型的初步成果。这项研究的重点是基于 DE 的集成关节角度和力测量单元,以及成本效益高的超薄传感电子装置。通过将由此产生的系统嵌入工业 4.0 环境,可以开发出一种自适应辅助工具。由此产生的系统可用于监测工人所需的运动,并根据具体的交互任务提供相应的触觉反馈。因此,该系统是一种适用于工业环境的新型便携式辅助工具。
Gesture and force sensing based on dielectric elastomers for intelligent gloves in the digital production
Due to recent progress in human-machine interaction the development of interfaces ensuring a safe collaboration between handling devices and workers is gaining in importance and impact to the industry field. For an adequate operation, combined sensing and actuation capabilities are sufficient for interaction units. Smart materials like dielectric elastomers (DEs) are predestinated for integrated multi-functional applications. DEs are lightweight, high energy density and highly stretchable transducers suitable for many different operation areas, like movement tracking, force sensing, haptic feedback and sound generation and can be used to develop highly integrated textile-based user interfaces. This paper shows first results on the development of a novel intelligent glove prototype based on DE elements. The main focus of this investigation lies on DE-based integrated joint angle and force measurement units as well on a cost-efficient and slim sensing electronic. By embedding the resulting system in an industry 4.0 environment, an adaptive assistance tool can be developed. The resulting system can be used to monitor the desired motion of a worker and to respond with a corresponding haptic feedback, which depends on the specific interaction task. This makes the resulting system a novel, portable assistant tool for industrial environments.