서해 해상 환경에서 선박형 부유식 라이다의 Carbon Trust OWA Stage 2 국내 인증 사례에 대한 고찰
A study on a Carbon Trust OWA Stage 2 Domestic Verification Case in the Yellow Sea
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Floating LiDAR systems provide significant savings in cost and time compared to the fixed meteorological mast measurement type, and have the advantage of being able to be deployed in various locations due to less restriction on the depth of the installation site. However, to use the wind data collected by a floating LiDAR system commercially, verification procedure is required to ensure that the collected data have sufficient availability. The Carbon Trust OWA roadmap presents guidelines in three stages for the reliability of the wind data collected using a floating LiDAR system. Companies developing wind farms are requesting at least Stage 2 (pre-commercial stage) presented by OWA, and many overseas companies are leading the domestic and overseas markets. In this paper, we introduce the case of OWA Stage 2 certification for the commercial operation of floating LiDAR systems.
Abstract
Floating LiDAR systems provide significant savings in cost and time compared to the fixed meteorological mast measurement type, and have the advantage of being able to be deployed in various locations due to less restriction on the depth of the installation site. However, to use the wind data collected by a floating LiDAR system commercially, verification procedure is required to ensure that the collected data have sufficient availability. The Carbon Trust OWA roadmap presents guidelines in three stages for the reliability of the wind data collected using a floating LiDAR system. Companies developing wind farms are requesting at least Stage 2 (pre-commercial stage) presented by OWA, and many overseas companies are leading the domestic and overseas markets. In this paper, we introduce the case of OWA Stage 2 certification for the commercial operation of floating LiDAR systems.
참고문헌 (13)
- CARBON TRUST, "Carbon Trust Offshore Wind Accelerator Roadmap for the Commercial Acceptance of Floating LiDAR Technology, Version 2.0", ~ (2018)
- CARBON TRUST, "Offshore Wind Accelerator Recommended practices for Floating LiDAR Systems, Issue 1.0", ~ (2016)
- ABS, "Rule for Building and Classing Mobile Offshore Unit, Part 3 Hull Construction and Equipment", ~ (2022)
- DNVGL, "Structural design of offshore units – WSD method, DNVGL-OS-C201", ~ (2016)
- Kim Tae-Woo, "Design of Oceanograph buoy-Part 1: Structural Integrity of Hull", Journal of Ocean Engineering and Technology, 23(1), pp.81~88 (2009)
- Ministry of Oceans and Fisheries, "Manual for Aids to Navigation", ~ (2015)
- NDBC, "NDBC Mooring Design manual", ~ (1989)
- Korea Deep Sea Wave Report, "Ministry of Oceans and Fisheries", ~ (2019)
- "Tidal forecast at the Gunsan Port" (2020)[URL]
- DNV, "Environmental Conditions and Environmental Loads, DNV-RP-C205", ~ (2014)
- DNVGL, "Stability and watertight integrity, DNVGL-OS-C301", ~ (2015)
- Berteaux, H. O., "Buoy Engineering" (1976), Wiley-Inter Science Publication
- IEC, "Wind energy generation systems- Part 12-1: Power performance measurements of electrical producing wind terbines, IEC-61400-12", ~ (2017)