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Sustainability Enhancement of a Turbine Vane Manufacturing Cell through Digital Simulation-Based Design

机译:通过基于数字仿真的设计提高涡轮叶片制造单元的可持续性

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Modern manufacturing systems should satisfy emerging needs related to sustainable development. The design of sustainable manufacturing systems can be valuably supported by simulation, traditionally employed mainly for time and cost reduction. In this paper, a multi-purpose digital simulation approach is proposed to deal with sustainable manufacturing systems design through Discrete Event Simulation (DES) and 3D digital human modelling. DES models integrated with data on power consumption of the manufacturing equipment are utilized to simulate different scenarios with the aim to improve productivity as well as energy efficiency, avoiding resource and energy waste. 3D simulation based on digital human modelling is employed to assess human factors issues related to ergonomics and safety of manufacturing systems. The approach is implemented for the sustainability enhancement of a real manufacturing cell of the aerospace industry, automated by robotic deburring. Alternative scenarios are proposed and simulated, obtaining a significant improvement in terms of energy efficiency (?87%) for the new deburring cell, and a reduction of energy consumption around ?69% for the coordinate measuring machine, with high potential annual energy cost savings and increased energy efficiency. Moreover, the simulation-based ergonomic assessment of human operator postures allows 25% improvement of the workcell ergonomic index.
机译:现代制造系统应满足与可持续发展有关的新兴需求。可持续制造系统的设计可以通过仿真得到宝贵的支持,而仿真通常是主要用于减少时间和成本的方法。本文提出了一种多功能数字仿真方法,通过离散事件仿真(DES)和3D数字人体建模来处理可持续制造系统设计。 DES模型与制造设备的功耗数据集成在一起,可用于模拟不同情况,以提高生产率和能源效率,避免资源和能源浪费。基于数字人体模型的3D模拟用于评估与人机工程学和制造系统安全性相关的人为因素问题。实现该方法的目的是通过机器人去毛刺实现自动化,从而增强航空航天业实际制造单元的可持续性。提出并模拟了替代方案,从而使新的去毛刺单元的能效(约87%)得到了显着改善,而三坐标测量机的能耗则减少了约69%,从而潜在地节省了每年的能源成本并提高了能源效率。此外,基于模拟的人体工学人体工学评估可将工作单元人体工学指标提高25%。

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