Niall D. McLean, Matthew A. Holland, R. MacIver, E. Bannon
{"title":"Site selection for scaled open water testing of a wave energy converter","authors":"Niall D. McLean, Matthew A. Holland, R. MacIver, E. Bannon","doi":"10.36688/imej.3.101-110","DOIUrl":null,"url":null,"abstract":"Many wave energy converter developers opt to carry out scaled prototype open water testing of their device as part of their technology development. Developers who have done this recently include Sea Power (1/5 scale, Galway Bay, 2017), CorPower (1/4 scale, EMEC, 2018) and Marine Power Systems (1/4 scale, FaBTest, ongoing). Scaled open water testing offers several benefits, including more representative realisations of sub-systems, identification and resolution of technological issues associated with scaling-up, and de-risking the manufacturing and marine operational procedures ahead of commercial-scale testing. In preparation for testing in Stage 3 of the Novel Wave Energy Converter programme, Wave Energy Scotland has considered requirements of a suitable scaled open water site and the methods for selection. In common with commercial site identification, this must consider operational infrastructure, time and funding constraints, and the appropriateness of site characteristics. This appropriateness is further complicated by the need to find a site of comparable scaled water depth and where the sea-states of interest (when scaled to full-scale) are likely to occur with sufficient frequency over the duration of the intended testing campaign. This paper presents an approach, and its associated assumptions, to identify locations which have the potential to satisfy the scaled open water site considerations, before discussing the challenges to satisfy the critical testing outcomes, and the pragmatism required to meet all requirements.","PeriodicalId":36111,"journal":{"name":"International Marine Energy Journal","volume":" ","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2020-09-16","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"1","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"International Marine Energy Journal","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.36688/imej.3.101-110","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"Q3","JCRName":"Engineering","Score":null,"Total":0}
引用次数: 1
Abstract
Many wave energy converter developers opt to carry out scaled prototype open water testing of their device as part of their technology development. Developers who have done this recently include Sea Power (1/5 scale, Galway Bay, 2017), CorPower (1/4 scale, EMEC, 2018) and Marine Power Systems (1/4 scale, FaBTest, ongoing). Scaled open water testing offers several benefits, including more representative realisations of sub-systems, identification and resolution of technological issues associated with scaling-up, and de-risking the manufacturing and marine operational procedures ahead of commercial-scale testing. In preparation for testing in Stage 3 of the Novel Wave Energy Converter programme, Wave Energy Scotland has considered requirements of a suitable scaled open water site and the methods for selection. In common with commercial site identification, this must consider operational infrastructure, time and funding constraints, and the appropriateness of site characteristics. This appropriateness is further complicated by the need to find a site of comparable scaled water depth and where the sea-states of interest (when scaled to full-scale) are likely to occur with sufficient frequency over the duration of the intended testing campaign. This paper presents an approach, and its associated assumptions, to identify locations which have the potential to satisfy the scaled open water site considerations, before discussing the challenges to satisfy the critical testing outcomes, and the pragmatism required to meet all requirements.
作为技术开发的一部分,许多波浪能转换器开发商选择对其设备进行规模原型开放水域测试。最近这样做的开发商包括Sea Power(1/5规模,Galway Bay, 2017), CorPower(1/4规模,EMEC, 2018)和Marine Power Systems(1/4规模,FaBTest,正在进行中)。大规模的开放水域测试提供了几个好处,包括更有代表性的子系统实现,与扩大规模相关的技术问题的识别和解决,以及在商业规模测试之前降低制造和海上操作程序的风险。在为新型波浪能转换器计划第三阶段的测试做准备时,苏格兰波浪能源公司考虑了合适的开阔水域场地的要求和选择方法。与商业地点识别一样,这必须考虑操作基础设施、时间和资金限制以及地点特征的适当性。由于需要找到一个具有可比的比例水深的地点,并且在预期的测试活动期间,感兴趣的海况(当按比例缩放到全尺寸时)可能会以足够的频率出现,因此这种适当性进一步复杂化。本文提出了一种方法及其相关假设,在讨论满足关键测试结果的挑战和满足所有要求所需的实用主义之前,确定有可能满足规模开阔水域考虑的位置。