应用FMEA框架为海上浮式风电组件开发创新提供信息

G. Rinaldi, P. Thies, L. Johanning, P. McEvoy, G. Georgallis, A. Moraiti, Carlos Cortés Lahuerta, M. Vidmar
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引用次数: 1

摘要

未来的海上风电技术解决方案将是漂浮式的,以方便深水位置。EUH2020资助的项目FLOTANT(创新、低成本、低重量和安全的浮式风技术,针对深水风场进行了优化)旨在解决与这一进展相关的技术和经济挑战。特别是,将开发和测试专门为浮动海上风力设备设计的系泊线、电力电缆和浮动平台方面的创新解决方案,并评估这些组件提供的好处。本文提出了一种专门设计的失效模式和影响分析(FMEA)技术,并将其应用于新型海上浮式风电部件。其目的是确定技术资格,确定关键失效模式,评估这些部件的临界性及其对设备的可靠性、可用性和可维护性的相对贡献。这将有助于确定开发生命周期中适当的缓解措施,并评估具体创新的潜在成本节约和影响。该方法考虑了来自组件开发人员和其他项目合作伙伴的输入,以及从现有文献和数据库中提取的信息。将介绍在组件创新、其主要关键问题和相关缓解措施以及对预防性和纠正性维护的影响方面的研究结果,以便为浮式海上风力装置当前和未来的发展提供信息。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Informing Components Development Innovations for Floating Offshore Wind Through Applied FMEA Framework
Future offshore wind technology solutions will be floating to facilitate deep water locations. The EUH2020 funded project FLOTANT (Innovative, low cost, low weight and safe floating wind technology optimized for deep water wind sites) aims to address the arising technical and economic challenges linked to this progress. In particular, innovative solutions in terms of mooring lines, power cable and floating platform, specifically designed for floating offshore wind devices, will be developed and tested, and the benefits provided by these components assessed. In this paper a purpose-built Failure Modes and Effect Analysis (FMEA) technique is presented, and applied to the novel floating offshore wind components. The aim is to determine the technology qualification, identify the key failure modes and assess the criticality of these components and their relative contributions to the reliability, availability and maintainability of the device. This will allow for the identification of suitable mitigation measures in the development lifecycle, as well as an assessment of potential cost savings and impacts of the specific innovations. The methodology takes into account inputs from the components developers and other project partners, as well as information extracted from existing literature and databases. Findings in terms of components innovations, their main criticalities and related mitigation measures, and impacts on preventive and corrective maintenance, will be presented in order to inform current and future developments for floating offshore wind devices.
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