Re in greem while FMU Digitalization of Large-Scale Testing Facilities for the Wind Industry: DIGIT-BENCH Digital Twin

E. E. Baş, G. Abbiati, Cláudio Ângelo Gonçalves Gomes, Uwe Jassmann, P. G. Larsen
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Abstract

Testing of large wind turbine components plays a central role in delivering reliable yet cost-effective technology. However, these experiments are often lengthy and costly. Fatigue testing of a wind turbine blade might take up to 12-14 months, whereas highly accelerated lifetime testing of a nacelle demands 6-8 months. The exchange of simulation models and data between OEMs and test facilities is recognized as a critical factor in the planning of an experimental campaign. In fact, OEMs are typically very protective of their industrial secrets, and sharing such sensitive information may constitute a threat. It follows that the use of simulation models to enable more effective experimentation is not pursued efficiently. Digital twins are emerging as a key enabling technology to improve the operation & maintenance of test benches for the wind industry. A digital twin combines physical systems and their digital models into a cyber-physical system to provide functionalities that cannot be attained by either physical or digital assets independently. The seamless integration of the test bench with digital models offered by a digital twin is expected to enhance the interaction between OEM and test bench operators. This proceeding illustrates the status of the development of the DIGIT-BENCH digital twin developed by R&D Test Systems (R&D) and Aarhus University to serve large-scale test facilities for the wind industry. The digital twin utilizes FMI-based co-simulation to enable the coupling of physical/digital components in an industrial-secret-friendly environment. The digital twin concept is demonstrated on a 2-degrees-of-freedom test bench installed at Aarhus University.
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Re in greem while FMU 风能行业大型测试设备的数字化:DIGIT-BENCH 数字双胞胎
大型风力涡轮机部件的测试在提供可靠且经济高效的技术方面发挥着核心作用。然而,这些试验往往耗时长、成本高。风力涡轮机叶片的疲劳测试可能需要 12-14 个月,而机舱的高加速寿命测试则需要 6-8 个月。原始设备制造商和测试设施之间的仿真模型和数据交换被认为是规划实验活动的关键因素。事实上,原始设备制造商通常非常保守其工业机密,共享此类敏感信息可能构成威胁。因此,使用仿真模型来实现更有效的实验并没有得到有效实施。数字孪生正在成为改善风能行业试验台操作和维护的关键技术。数字孪生将物理系统及其数字模型结合到网络物理系统中,提供物理或数字资产无法独立实现的功能。数字孪生提供了测试台与数字模型的无缝集成,有望增强原始设备制造商与测试台操作人员之间的互动。本论文介绍了由研发测试系统公司(R&D)和奥胡斯大学共同开发的 DIGIT-BENCH 数字孪生系统的开发状况,该系统主要用于风能行业的大型测试设施。数字孪生利用基于 FMI 的协同仿真,在工业保密环境中实现物理/数字组件的耦合。数字孪生概念在奥胡斯大学安装的 2 自由度测试台上进行了演示。
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