多波吸收平台的设计、建模和测试

Niall McLean, E. Bannon, Matthew Holland, David Forehand, Thomas Giles, Katherine Smith, Thomas Davey
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引用次数: 0

摘要

本文的主题是研究多波能量吸收平台(MWAP)性能的物理模型和数值模型的发展以及坦克试验方案。该平台的灵感来自于用于浮动海上风力(FOW)的大型平台的拟议设计。物理模型的模块化设计可以将可变数量的吸收器安装到平台上,最多可同时测试9个吸收器。所使用的吸收器是一种简化的浸入式压差装置,每个吸收器都包含一组机械弹簧,以近似真实的内部空气弹簧的响应。将在2023年期间进行物理模型水箱试验,利用一系列环境条件,这些环境条件代表了苏格兰西海岸一个暴露场地的环境条件,该场地通过scowind方案租赁,具有适当的水深和波浪资源,可进行大规模波浪能开发。在物理模型测试期间进行的测量将用于验证MWAP的数值模型,并将允许后续调查年度能源性能的关键驱动因素,探索未在波浪箱中测试的平台配置选项。将给出该项目的动机、设计考虑以及罐体尺寸和全尺寸设计要求之间的平衡。将讨论在物理和数值模拟工作期间所作的限制和假设的影响,以及在本项目范围之外利用这些工具的下一步步骤。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Multi wave absorber platform design, modelling and testing
The subject of this paper is the development of physical and numerical models and a tank test programme to investigate the performance of a multi wave energy absorber platform (MWAP). The platform is inspired by the proposed designs for large scale platforms to be used for floating offshore wind (FOW). The modular design of the physical model enables a variable number of absorbers to be mounted to the platform, with up to 9 absorbers tested simultaneously. The absorbers used are a simplified version of a submerged pressure differential device, with each absorber incorporating a set of mechanical springs to approximate the response of the real internal air spring. Physical model tank tests will be undertaken during 2023, utilizing a range of environmental conditions representative of those at an exposed site on the west coast of Scotland, leased through the ScotWind programme and which has an appropriate water depth and wave resource for large scale wave energy exploitation. Measurements taken during physical model testing will be used to validate numerical models of the MWAP and will allow subsequent investigation of key drivers of annual energy performance, exploring platform configuration options not tested in the wave tank. The motivation for this project, design considerations and balance between tank scale & full-scale design requirements will be given. Discussion will be provided on the implications of the limitations and assumptions made during the physical and numerical modelling work, as well as next steps for utilisation of the tools beyond the scope of this project.
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