Scour depth, sediment characteristics, and hydrodynamic conditions dataset at British offshore wind farms, 2005-2014
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| Format: | Dataset Open Access |
| Language: | en |
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2025
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| _version_ | 1867168238962475008 |
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| author | Garcia, Karen Jordan, Christian Melling, Gregor Schendel, Alexander Welzel, Mario Schlurmann, Torsten |
| author_facet | Garcia, Karen Jordan, Christian Melling, Gregor Schendel, Alexander Welzel, Mario Schlurmann, Torsten |
| collection | Datos científicos de ciencias marinas y ambientales |
| contents | This dataset provides calculated scour depth and associated site-specific environmental parameters from multiple British offshore wind farms (OWFs). Information from OWFs in both the Irish Sea and the North Sea is included in the dataset, and a range of hydrodynamic regimes and seabed conditions are covered. Scour depth was extracted from pre- and post-construction bathymetries, conducted between 2005 and 2014, and refers to the vertical seabed change around the OWES. This dataset collection contains processed data on scour depth, sediment properties, and hydrodynamic conditions at multiple offshore wind energy structures (OWES) across nine British offshore wind farms (OWFs). Scour depth values were derived from the difference between pre- and post-construction multibeam bathymetric datasets. Sediment grain size information was obtained from publicly available benthic reports from Marine Data Exchange (MDE). Hydrodynamic conditions were reconstructed using one-year hindcast time series data before the post-bathymetry date, and extreme conditions were represented by the 99th percentiles by the Copernicus Marine Service (CMEMS). |
| format | Dataset Open Access |
| id | pangaea_https___doi_org_10_1594_PANGAEA_984839 |
| institution | PANGAEA |
| language | en |
| publishDate | 2025 |
| publisher | PANGAEA |
| record_format | pangaea |
| spellingShingle | Scour depth, sediment characteristics, and hydrodynamic conditions dataset at British offshore wind farms, 2005-2014 Garcia, Karen Jordan, Christian Melling, Gregor Schendel, Alexander Welzel, Mario Schlurmann, Torsten BA_A1; BA_A2; BA_A3; BA_A4; BA_A5; BA_A6; BA_A7; BA_B1; BA_B2; BA_B3; BA_B4; BA_B5; BA_B6; BA_B7; BA_B8; BA_C1; BA_C2; BA_C3; BA_C4; BA_C5; BA_C6; BA_C7; BA_D1; BA_D2; BA_D3; BA_D4; BA_D5; BA_D6; BA_D7; BA_D8; Calculated according to Garcia et al. (2025); CoastalFutures; Current velocity; DAM sustainMare - CoastalFutures: Future scenarios to promote the sustainable use of marine areas; Data source; DATE/TIME; Date/time end; Date/time start; Date of determination; DEPTH, water; Event label; Flow intensity; Froude number; GG_GAA01; GG_GAA02; GG_GAA03; GG_GAB01; GG_GAB02; GG_GAB03; GG_GAC01; GG_GAC02; GG_GAC04; GG_GAC05; GG_GAC06; GG_GAC07; GG_GAC08; GG_GAD01; GG_GAD02; GG_GAD03; GG_GAD04; GG_GAD05; GG_GAD06; GG_GAD07; GG_GAD08; GG_GAD09; GG_GAD10; GG_GAE01; GG_GAE02; GG_GAE03; GG_GAE04; GG_GAE05; GG_GAE06; GG_GAE07; GG_GAE08; GG_GAF01; GG_GAF02; GG_GAF03; GG_GAF04; GG_GAF05; GG_GAG01; GG_GAG02; GG_IGA01; GG_IGB01; GG_IGB02; GG_IGB03; GG_IGB04; GG_IGB05; GG_IGB06; GG_IGB07; GG_IGC01; GG_IGC02; GG_IGC03; GG_IGC04; GG_IGC05; GG_IGC06; GG_IGC07; GG_IGC08; GG_IGC09; GG_IGC10; GG_IGD01; GG_IGD02; GG_IGD03; GG_IGD04; GG_IGD05; GG_IGD06; GG_IGD07; GG_IGD08; GG_IGD09; GG_IGD10; GG_IGD11; GG_IGD12; GG_IGD13; GG_IGE01; GG_IGE02; GG_IGE03; GG_IGE04; GG_IGE05; GG_IGE06; GG_IGE07; GG_IGE08; GG_IGE09; GG_IGE10; GG_IGE11; GG_IGE12; GG_IGE13; GG_IGE14; GG_IGF01; GG_IGF02; GG_IGF03; GG_IGF04; GG_IGF05; GG_IGF06; GG_IGF07; GG_IGF08; GG_IGF09; GG_IGF10; GG_IGG01; GG_IGG02; GG_IGG03; GG_IGG04; GG_IGG05; GG_IGG06; GG_IGG07; GG_IGG08; GG_IGG09; GG_IGG10; GG_IGG11; GG_IGH01; GG_IGH02; GG_IGH03; GG_IGH04; GG_IGH05; GG_IGH06; GG_IGH07; GG_IGH08; GG_IGH09; GG_IGH10; GG_IGH11; GG_IGH12; GG_IGI01; GG_IGI02; GG_IGI03; GG_IGI04; GG_IGI05; GG_IGI06; GG_IGI07; GG_IGI08; GG_IGI09; GG_IGI10; GG_IGJ01; GG_IGJ02; GG_IGJ03; GG_IGJ04; GG_IGJ05; GG_IGJ06; GG_IGJ07; GG_IGJ08; GG_IGK01; GG_IGK02; GG_IGK03; GG_IGL01; GG_IGL02; GG_IGM01; GG_SUBSTATION_GA; GG_SUBSTATION_IG; GS_A01; GS_A02; GS_A03; GS_A04; GS_A05; GS_A06; GS_B01; GS_B02; GS_B03; GS_B04; GS_B05; GS_B06; GS_C01; GS_C02; GS_C03; GS_C04; GS_C05; GS_C06; GS_D01; GS_D02; GS_D03; GS_D04; GS_D05; GS_D06; GS_E01; GS_E02; GS_E03; GS_E04; GS_E05; GS_E06; GS_F01; GS_F02; GS_F03; GS_F04; GS_F05; GS_F06; GS_F07; GS_F08; GS_F09; GS_G01; GS_G02; GS_G03; GS_G04; GS_G05; GS_G06; GS_G07; GS_G08; GS_G09; GS_SUBSTATION01; GS_SUBSTATION02; HG_A05; HG_A06; HG_A07; HG_A09; HG_A10; HG_A11; HG_A12; HG_B04; HG_B05; HG_B06; HG_B07; HG_B08; HG_B09; HG_B10; HG_B11; HG_B12; HG_C03; HG_C04; HG_C05; HG_C06; HG_C07; HG_C08; HG_C09; HG_C10; HG_C11; HG_C12; HG_D03; HG_D04; HG_D05; HG_D06; HG_D07; HG_D08; HG_D09; HG_D10; HG_D11; HG_E03; HG_E04; HG_E05; HG_E06; HG_E07; HG_E08; HG_E09; HG_E10; HG_F02; HG_F03; HG_F04; HG_F05; HG_F06; HG_F07; HG_F08; HG_F09; HG_G03; HG_G04; HG_G05; HG_G06; HG_G07; HG_G08; HG_H01; HG_H02; HG_H03; HG_H04; HG_H05; HG_H06; HG_H07; HG_I01; HG_I02; HG_I03; HG_I04; HG_I05; HG_I06; HG_J01; HG_J02; HG_J03; HG_SUBSTATION; hydrodynamic conditions; Keulegan–Carpenter number; LA_A10; LA_A11; LA_A12; LA_A13; LA_A14; LA_A15; LA_B08; LA_B09; LA_B10; LA_B11; LA_B12; LA_B13; LA_B15; LA_B16; LA_B17; LA_C06; LA_C07; LA_C08; LA_C09; LA_C10; LA_C11; LA_C12; LA_C13; LA_C14; LA_C15; LA_C17; LA_C18; LA_C19; LA_D04; LA_D05; LA_D06; LA_D07; LA_D08; LA_D09; LA_D10; LA_D11; LA_D12; LA_D13; LA_D14; LA_D15; LA_D16; LA_D17; LA_D19; LA_D20; LA_E02; LA_E03; LA_E04; LA_E05; LA_E06; LA_E07; LA_E08; LA_E09; LA_E10; LA_E11; LA_E12; LA_E13; LA_E14; LA_E15; LA_E16; LA_E17; LA_E18; LA_E19; LA_F01; LA_F02; LA_F03; LA_F04; LA_F05; LA_F06; LA_F07; LA_F08; LA_F09; LA_F10; LA_F11; LA_F12; LA_F13; LA_F14; LA_F15; LA_F16; LA_F17; LA_F18; LA_F19; LA_F20; LA_G03; LA_G04; LA_G05; LA_G06; LA_G07; LA_G08; LA_G09; LA_G10; LA_G11; LA_G12; LA_G13; LA_G14; LA_G15; LA_G16; LA_G17; LA_G18; LA_G19; LA_G20; LA_H04; LA_H05; LA_H06; LA_H07; LA_H08; LA_H09; LA_H10; LA_H11; LA_H12; LA_H13; LA_H14; LA_H15; LA_H16; LA_H17; LA_H18; LA_H19; LA_H20; LA_I05; LA_I06; LA_I07; LA_I08; LA_I09; LA_I10; LA_I11; LA_I12; LA_I13; LA_I14; LA_I15; LA_I16; LA_I17; LA_I18; LA_I19; LA_I20; LA_J06; LA_J07; LA_J08; LA_J09; LA_J10; LA_J11; LA_J12; LA_J13; LA_J14; LA_J15; LA_J16; LA_J17; LA_J18; LA_J19; LA_J20; LA_K11; LA_K12; LA_K13; LA_K14; LA_K15; LA_K16; LA_K17; LA_K18; LA_K19; LA_K20; LA_L11; LA_L12; LA_L13; LA_L14; LA_L15; LA_L16; LA_L17; LA_L18; LA_L19; LA_L20; LA_M14; LA_M15; LA_M16; LA_M17; LA_M18; LA_M19; LA_M20; LA_SUBSTATION_1; LA_SUBSTATION_2; LATITUDE; LID_ID1; LID_ID10; LID_ID11; LID_ID12; LID_ID13; LID_ID14; LID_ID15; LID_ID16; LID_ID17; LID_ID18; LID_ID19; LID_ID2; LID_ID20; LID_ID21; LID_ID22; LID_ID23; LID_ID24; LID_ID25; LID_ID26; LID_ID27; LID_ID28; LID_ID29; LID_ID3; LID_ID30; LID_ID4; LID_ID5; LID_ID6; LID_ID7; LID_ID8; LID_ID9; LID_L1; LID_L10; LID_L11; LID_L12; LID_L13; LID_L14; LID_L15; LID_L16; LID_L17; LID_L18; LID_L19; LID_L2; LID_L20; LID_L21; LID_L22; LID_L23; LID_L24; LID_L25; LID_L26; LID_L27; LID_L28; LID_L29; LID_L3; LID_L30; LID_L4; LID_L5; LID_L6; LID_L7; LID_L8; LID_L9; LONGITUDE; LS_LS01; LS_LS02; LS_LS03; LS_LS04; LS_LS05; LS_LS06; LS_LS07; LS_LS08; LS_LS09; LS_LS10; LS_LS11; LS_LS12; LS_LS13; LS_LS14; LS_LS15; LS_LS16; LS_LS17; LS_LS18; LS_LS19; LS_LS20; LS_LS21; LS_LS22; LS_LS23; LS_LS24; LS_LS25; LS_LS26; LS_LS27; LS_LS28; LS_LS29; LS_LS30; LS_LS31; LS_LS32; LS_LS33; LS_LS34; LS_LS35; LS_LS36; LS_LS37; LS_LS38; LS_LS39; LS_LS40; LS_LS41; LS_LS42; LS_LS43; LS_LS44; LS_LS45; LS_LS46; LS_LS47; LS_LS48; LS_LS49; LS_LS50; LS_LS51; LS_LS52; LS_LS53; LS_LS54; LS_LS55; LS_LS56; LS_LS57; LS_LS58; LS_LS59; LS_LS60; LS_LS61; LS_LS62; LS_LS63; LS_LS64; LS_LS65; LS_LS66; LS_LS67; LS_LS68; LS_LS69; LS_LS70; LS_LS71; LS_LS72; LS_LS73; LS_LS74; LS_LS75; LS_SUBSTATION_OSP2; Median, grain size; Median grain size/monopile diameter ratio; Mobility parameter; Monopile diameter; MULT; Multiple investigations; Number; Offshore wind energy structures (OWES); Offshore wind farm ID; Research Mission of the German Marine Research Alliance (DAM): Protection and sustainable use of marine areas; Reynolds number, pile; RR_A1; RR_A2; RR_B1; RR_B2; RR_B3; RR_B4; RR_B5; RR_C1; RR_C2; RR_C3; RR_C4; RR_C5; RR_C6; RR_D1; RR_D2; RR_D3; RR_D4; RR_D5; RR_D6; RR_D7; RR_E1; RR_E2; RR_E3; RR_E4; RR_E5; RR_E6; RR_E7; RR_E8; RR_F1; RR_F2; RR_F3; RR_F4; RR_F5; RR_F6; RR_F7; RR_F8; RR_G1; RR_G2; RR_G3; RR_G4; RR_G5; RR_G6; RR_G7; RR_G8; RR_H1; RR_H2; RR_H3; RR_H4; RR_H5; RR_H6; RR_H7; RR_J1; RR_J2; RR_J3; RR_J4; RR_J5; RR_J6; RR_K1; RR_K2; RR_K3; scour depth; Scour depth, maximum; Scour depth/monopile diameter ratio; sediment grain size; Shields parameter; Shields parameter, critical; sustainMare; TEE_01A; TEE_02A; TEE_03A; TEE_04A; TEE_05A; TEE_06A; TEE_07A; TEE_08A; TEE_09A; TEE_10B; TEE_11B; TEE_12B; TEE_13B; TEE_14B; TEE_15B; TEE_16B; TEE_17B; TEE_18B; TEE_19C; TEE_20C; TEE_21C; TEE_22C; TEE_23C; TEE_24C; TEE_25C; TEE_26C; TEE_27C; Turbine ID; Turbine number; Water depth/monopile diameter ratio; Wave height, significant This dataset provides calculated scour depth and associated site-specific environmental parameters from multiple British offshore wind farms (OWFs). Information from OWFs in both the Irish Sea and the North Sea is included in the dataset, and a range of hydrodynamic regimes and seabed conditions are covered. Scour depth was extracted from pre- and post-construction bathymetries, conducted between 2005 and 2014, and refers to the vertical seabed change around the OWES. This dataset collection contains processed data on scour depth, sediment properties, and hydrodynamic conditions at multiple offshore wind energy structures (OWES) across nine British offshore wind farms (OWFs). Scour depth values were derived from the difference between pre- and post-construction multibeam bathymetric datasets. Sediment grain size information was obtained from publicly available benthic reports from Marine Data Exchange (MDE). Hydrodynamic conditions were reconstructed using one-year hindcast time series data before the post-bathymetry date, and extreme conditions were represented by the 99th percentiles by the Copernicus Marine Service (CMEMS). |
| title | Scour depth, sediment characteristics, and hydrodynamic conditions dataset at British offshore wind farms, 2005-2014 |
| topic | BA_A1; BA_A2; BA_A3; BA_A4; BA_A5; BA_A6; BA_A7; BA_B1; BA_B2; BA_B3; BA_B4; BA_B5; BA_B6; BA_B7; BA_B8; BA_C1; BA_C2; BA_C3; BA_C4; BA_C5; BA_C6; BA_C7; BA_D1; BA_D2; BA_D3; BA_D4; BA_D5; BA_D6; BA_D7; BA_D8; Calculated according to Garcia et al. (2025); CoastalFutures; Current velocity; DAM sustainMare - CoastalFutures: Future scenarios to promote the sustainable use of marine areas; Data source; DATE/TIME; Date/time end; Date/time start; Date of determination; DEPTH, water; Event label; Flow intensity; Froude number; GG_GAA01; GG_GAA02; GG_GAA03; GG_GAB01; GG_GAB02; GG_GAB03; GG_GAC01; GG_GAC02; GG_GAC04; GG_GAC05; GG_GAC06; GG_GAC07; GG_GAC08; GG_GAD01; GG_GAD02; GG_GAD03; GG_GAD04; GG_GAD05; GG_GAD06; GG_GAD07; GG_GAD08; GG_GAD09; GG_GAD10; GG_GAE01; GG_GAE02; GG_GAE03; GG_GAE04; GG_GAE05; GG_GAE06; GG_GAE07; GG_GAE08; GG_GAF01; GG_GAF02; GG_GAF03; GG_GAF04; GG_GAF05; GG_GAG01; GG_GAG02; GG_IGA01; GG_IGB01; GG_IGB02; GG_IGB03; GG_IGB04; GG_IGB05; GG_IGB06; GG_IGB07; GG_IGC01; GG_IGC02; GG_IGC03; GG_IGC04; GG_IGC05; GG_IGC06; GG_IGC07; GG_IGC08; GG_IGC09; GG_IGC10; GG_IGD01; GG_IGD02; GG_IGD03; GG_IGD04; GG_IGD05; GG_IGD06; GG_IGD07; GG_IGD08; GG_IGD09; GG_IGD10; GG_IGD11; GG_IGD12; GG_IGD13; GG_IGE01; GG_IGE02; GG_IGE03; GG_IGE04; GG_IGE05; GG_IGE06; GG_IGE07; GG_IGE08; GG_IGE09; GG_IGE10; GG_IGE11; GG_IGE12; GG_IGE13; GG_IGE14; GG_IGF01; GG_IGF02; GG_IGF03; GG_IGF04; GG_IGF05; GG_IGF06; GG_IGF07; GG_IGF08; GG_IGF09; GG_IGF10; GG_IGG01; GG_IGG02; GG_IGG03; GG_IGG04; GG_IGG05; GG_IGG06; GG_IGG07; GG_IGG08; GG_IGG09; GG_IGG10; GG_IGG11; GG_IGH01; GG_IGH02; GG_IGH03; GG_IGH04; GG_IGH05; GG_IGH06; GG_IGH07; GG_IGH08; GG_IGH09; GG_IGH10; GG_IGH11; GG_IGH12; GG_IGI01; GG_IGI02; GG_IGI03; GG_IGI04; GG_IGI05; GG_IGI06; GG_IGI07; GG_IGI08; GG_IGI09; GG_IGI10; GG_IGJ01; GG_IGJ02; GG_IGJ03; GG_IGJ04; GG_IGJ05; GG_IGJ06; GG_IGJ07; GG_IGJ08; GG_IGK01; GG_IGK02; GG_IGK03; GG_IGL01; GG_IGL02; GG_IGM01; GG_SUBSTATION_GA; GG_SUBSTATION_IG; GS_A01; GS_A02; GS_A03; GS_A04; GS_A05; GS_A06; GS_B01; GS_B02; GS_B03; GS_B04; GS_B05; GS_B06; GS_C01; GS_C02; GS_C03; GS_C04; GS_C05; GS_C06; GS_D01; GS_D02; GS_D03; GS_D04; GS_D05; GS_D06; GS_E01; GS_E02; GS_E03; GS_E04; GS_E05; GS_E06; GS_F01; GS_F02; GS_F03; GS_F04; GS_F05; GS_F06; GS_F07; GS_F08; GS_F09; GS_G01; GS_G02; GS_G03; GS_G04; GS_G05; GS_G06; GS_G07; GS_G08; GS_G09; GS_SUBSTATION01; GS_SUBSTATION02; HG_A05; HG_A06; HG_A07; HG_A09; HG_A10; HG_A11; HG_A12; HG_B04; HG_B05; HG_B06; HG_B07; HG_B08; HG_B09; HG_B10; HG_B11; HG_B12; HG_C03; HG_C04; HG_C05; HG_C06; HG_C07; HG_C08; HG_C09; HG_C10; HG_C11; HG_C12; HG_D03; HG_D04; HG_D05; HG_D06; HG_D07; HG_D08; HG_D09; HG_D10; HG_D11; HG_E03; HG_E04; HG_E05; HG_E06; HG_E07; HG_E08; HG_E09; HG_E10; HG_F02; HG_F03; HG_F04; HG_F05; HG_F06; HG_F07; HG_F08; HG_F09; HG_G03; HG_G04; HG_G05; HG_G06; HG_G07; HG_G08; HG_H01; HG_H02; HG_H03; HG_H04; HG_H05; HG_H06; HG_H07; HG_I01; HG_I02; HG_I03; HG_I04; HG_I05; HG_I06; HG_J01; HG_J02; HG_J03; HG_SUBSTATION; hydrodynamic conditions; Keulegan–Carpenter number; LA_A10; LA_A11; LA_A12; LA_A13; LA_A14; LA_A15; LA_B08; LA_B09; LA_B10; LA_B11; LA_B12; LA_B13; LA_B15; LA_B16; LA_B17; LA_C06; LA_C07; LA_C08; LA_C09; LA_C10; LA_C11; LA_C12; LA_C13; LA_C14; LA_C15; LA_C17; LA_C18; LA_C19; LA_D04; LA_D05; LA_D06; LA_D07; LA_D08; LA_D09; LA_D10; LA_D11; LA_D12; LA_D13; LA_D14; LA_D15; LA_D16; LA_D17; LA_D19; LA_D20; LA_E02; LA_E03; LA_E04; LA_E05; LA_E06; LA_E07; LA_E08; LA_E09; LA_E10; LA_E11; LA_E12; LA_E13; LA_E14; LA_E15; LA_E16; LA_E17; LA_E18; LA_E19; LA_F01; LA_F02; LA_F03; LA_F04; LA_F05; LA_F06; LA_F07; LA_F08; LA_F09; LA_F10; LA_F11; LA_F12; LA_F13; LA_F14; LA_F15; LA_F16; LA_F17; LA_F18; LA_F19; LA_F20; LA_G03; LA_G04; LA_G05; LA_G06; LA_G07; LA_G08; LA_G09; LA_G10; LA_G11; LA_G12; LA_G13; LA_G14; LA_G15; LA_G16; LA_G17; LA_G18; LA_G19; LA_G20; LA_H04; LA_H05; LA_H06; LA_H07; LA_H08; LA_H09; LA_H10; LA_H11; LA_H12; LA_H13; LA_H14; LA_H15; LA_H16; LA_H17; LA_H18; LA_H19; LA_H20; LA_I05; LA_I06; LA_I07; LA_I08; LA_I09; LA_I10; LA_I11; LA_I12; LA_I13; LA_I14; LA_I15; LA_I16; LA_I17; LA_I18; LA_I19; LA_I20; LA_J06; LA_J07; LA_J08; LA_J09; LA_J10; LA_J11; LA_J12; LA_J13; LA_J14; LA_J15; LA_J16; LA_J17; LA_J18; LA_J19; LA_J20; LA_K11; LA_K12; LA_K13; LA_K14; LA_K15; LA_K16; LA_K17; LA_K18; LA_K19; LA_K20; LA_L11; LA_L12; LA_L13; LA_L14; LA_L15; LA_L16; LA_L17; LA_L18; LA_L19; LA_L20; LA_M14; LA_M15; LA_M16; LA_M17; LA_M18; LA_M19; LA_M20; LA_SUBSTATION_1; LA_SUBSTATION_2; LATITUDE; LID_ID1; LID_ID10; LID_ID11; LID_ID12; LID_ID13; LID_ID14; LID_ID15; LID_ID16; LID_ID17; LID_ID18; LID_ID19; LID_ID2; LID_ID20; LID_ID21; LID_ID22; LID_ID23; LID_ID24; LID_ID25; LID_ID26; LID_ID27; LID_ID28; LID_ID29; LID_ID3; LID_ID30; LID_ID4; LID_ID5; LID_ID6; LID_ID7; LID_ID8; LID_ID9; LID_L1; LID_L10; LID_L11; LID_L12; LID_L13; LID_L14; LID_L15; LID_L16; LID_L17; LID_L18; LID_L19; LID_L2; LID_L20; LID_L21; LID_L22; LID_L23; LID_L24; LID_L25; LID_L26; LID_L27; LID_L28; LID_L29; LID_L3; LID_L30; LID_L4; LID_L5; LID_L6; LID_L7; LID_L8; LID_L9; LONGITUDE; LS_LS01; LS_LS02; LS_LS03; LS_LS04; LS_LS05; LS_LS06; LS_LS07; LS_LS08; LS_LS09; LS_LS10; LS_LS11; LS_LS12; LS_LS13; LS_LS14; LS_LS15; LS_LS16; LS_LS17; LS_LS18; LS_LS19; LS_LS20; LS_LS21; LS_LS22; LS_LS23; LS_LS24; LS_LS25; LS_LS26; LS_LS27; LS_LS28; LS_LS29; LS_LS30; LS_LS31; LS_LS32; LS_LS33; LS_LS34; LS_LS35; LS_LS36; LS_LS37; LS_LS38; LS_LS39; LS_LS40; LS_LS41; LS_LS42; LS_LS43; LS_LS44; LS_LS45; LS_LS46; LS_LS47; LS_LS48; LS_LS49; LS_LS50; LS_LS51; LS_LS52; LS_LS53; LS_LS54; LS_LS55; LS_LS56; LS_LS57; LS_LS58; LS_LS59; LS_LS60; LS_LS61; LS_LS62; LS_LS63; LS_LS64; LS_LS65; LS_LS66; LS_LS67; LS_LS68; LS_LS69; LS_LS70; LS_LS71; LS_LS72; LS_LS73; LS_LS74; LS_LS75; LS_SUBSTATION_OSP2; Median, grain size; Median grain size/monopile diameter ratio; Mobility parameter; Monopile diameter; MULT; Multiple investigations; Number; Offshore wind energy structures (OWES); Offshore wind farm ID; Research Mission of the German Marine Research Alliance (DAM): Protection and sustainable use of marine areas; Reynolds number, pile; RR_A1; RR_A2; RR_B1; RR_B2; RR_B3; RR_B4; RR_B5; RR_C1; RR_C2; RR_C3; RR_C4; RR_C5; RR_C6; RR_D1; RR_D2; RR_D3; RR_D4; RR_D5; RR_D6; RR_D7; RR_E1; RR_E2; RR_E3; RR_E4; RR_E5; RR_E6; RR_E7; RR_E8; RR_F1; RR_F2; RR_F3; RR_F4; RR_F5; RR_F6; RR_F7; RR_F8; RR_G1; RR_G2; RR_G3; RR_G4; RR_G5; RR_G6; RR_G7; RR_G8; RR_H1; RR_H2; RR_H3; RR_H4; RR_H5; RR_H6; RR_H7; RR_J1; RR_J2; RR_J3; RR_J4; RR_J5; RR_J6; RR_K1; RR_K2; RR_K3; scour depth; Scour depth, maximum; Scour depth/monopile diameter ratio; sediment grain size; Shields parameter; Shields parameter, critical; sustainMare; TEE_01A; TEE_02A; TEE_03A; TEE_04A; TEE_05A; TEE_06A; TEE_07A; TEE_08A; TEE_09A; TEE_10B; TEE_11B; TEE_12B; TEE_13B; TEE_14B; TEE_15B; TEE_16B; TEE_17B; TEE_18B; TEE_19C; TEE_20C; TEE_21C; TEE_22C; TEE_23C; TEE_24C; TEE_25C; TEE_26C; TEE_27C; Turbine ID; Turbine number; Water depth/monopile diameter ratio; Wave height, significant |
| url | https://doi.org/10.1594/PANGAEA.984839 |