Grain size distribution for sediment samples of Ludwig Prandtl cruise LP20160725

Fuente: PANGAEA
Gespeichert in:
Bibliographische Detailangaben
Hauptverfasser: Pieper, Andrea, Zimmermann, Tristan, Irrgeher, Johanna, Pröfrock, Daniel
Format: Dataset Open Access
Sprache:en
Veröffentlicht: PANGAEA 2022
Schlagworte:
Date/Time of event; DEPTH, sediment/rock; Event label; Grab; GRAB; Grain size, LASER Particle Sizer; Helmholtz-Zentrum Hereon; Hereon; Latitude of event; Longitude of event; LP20160725; LP20160725_Stat_1_3; LP20160725_Stat_10_3; LP20160725_Stat_11_1; LP20160725_Stat_12_1; LP20160725_Stat_13_1; LP20160725_Stat_14_3; LP20160725_Stat_15_1; LP20160725_Stat_16_1; LP20160725_Stat_17_3; LP20160725_Stat_18_1; LP20160725_Stat_19_1; LP20160725_Stat_2_3; LP20160725_Stat_20_1; LP20160725_Stat_21_1; LP20160725_Stat_22_1; LP20160725_Stat_23_3; LP20160725_Stat_24_1; LP20160725_Stat_25_3; LP20160725_Stat_26_1; LP20160725_Stat_27_1; LP20160725_Stat_28_1; LP20160725_Stat_29_1; LP20160725_Stat_3_1; LP20160725_Stat_30_1; LP20160725_Stat_31_1; LP20160725_Stat_32_1; LP20160725_Stat_33_1; LP20160725_Stat_34_1; LP20160725_Stat_35_1; LP20160725_Stat_36_1; LP20160725_Stat_37_1; LP20160725_Stat_38_1; LP20160725_Stat_39_1; LP20160725_Stat_4_3; LP20160725_Stat_40_1; LP20160725_Stat_41_1; LP20160725_Stat_42_1; LP20160725_Stat_43_1; LP20160725_Stat_44_1; LP20160725_Stat_45_1; LP20160725_Stat_46_1; LP20160725_Stat_47_1; LP20160725_Stat_48_1; LP20160725_Stat_49_1; LP20160725_Stat_5_3; LP20160725_Stat_50_1; LP20160725_Stat_51_1; LP20160725_Stat_52_1; LP20160725_Stat_53_1; LP20160725_Stat_54_1; LP20160725_Stat_55_1; LP20160725_Stat_56_3; LP20160725_Stat_6_1; LP20160725_Stat_7_1; LP20160725_Stat_8_1; LP20160725_Stat_9_1; Ludwig Prandtl; North Sea; S001; S002; S003; S004; S005; S006; S007; S008; S009; S010; S011; S012; S013; S014; S015; S016; S017; S018; S019; S020; S021; S022; S023; S024; S025; S026; S027; S028; S029; S030; S031; S032; S033; S034; S035; S036; S037; S038; S039; S040; S041; S042; S043; S044; S045; S046; S047; S048; S049; S050; S051; S052; S053; S054; S055; S056; Sample code/label; Size fraction < 0.020 mm; Size fraction < 0.020 mm, standard deviation; Size fraction < 0.063 mm, mud, silt+clay; Size fraction < 0.063 mm, mud, silt+clay, standard deviation; Size fraction < 0.125 mm; Size fraction < 0.125 mm, standard deviation; Size fraction < 0.250 mm; Size fraction < 0.250 mm, standard deviation; Station label
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_version_ 1867170406016745472
author Pieper, Andrea
Zimmermann, Tristan
Irrgeher, Johanna
Pröfrock, Daniel
author_facet Pieper, Andrea
Zimmermann, Tristan
Irrgeher, Johanna
Pröfrock, Daniel
collection Datos científicos de ciencias marinas y ambientales
contents Offshore wind energy is a steadily growing sector contributing to the worldwide energy production. The impact of these offshore constructions on the marine environment, however, remains unclear in many aspects. In fact, little is known about potential emissions from corrosion protection systems such as organic coatings or galvanic anodes composed of Al and Zn alloys, used to protect offshore structures. In order to assess potential chemical emissions from offshore wind farms and their impact on the marine environment water and sediment samples were taken in the surroundings of offshore wind farms of the German Bight between 25.07.2016 and 02.08.2016. The sediment samples were taken by a box grab and were analyzed for their grain size distribution by laser diffraction.
format Dataset Open Access
id pangaea_https___doi_org_10_1594_PANGAEA_943761
institution PANGAEA
language en
publishDate 2022
publisher PANGAEA
record_format pangaea
spellingShingle Grain size distribution for sediment samples of Ludwig Prandtl cruise LP20160725
Pieper, Andrea
Zimmermann, Tristan
Irrgeher, Johanna
Pröfrock, Daniel
Date/Time of event; DEPTH, sediment/rock; Event label; Grab; GRAB; Grain size, LASER Particle Sizer; Helmholtz-Zentrum Hereon; Hereon; Latitude of event; Longitude of event; LP20160725; LP20160725_Stat_1_3; LP20160725_Stat_10_3; LP20160725_Stat_11_1; LP20160725_Stat_12_1; LP20160725_Stat_13_1; LP20160725_Stat_14_3; LP20160725_Stat_15_1; LP20160725_Stat_16_1; LP20160725_Stat_17_3; LP20160725_Stat_18_1; LP20160725_Stat_19_1; LP20160725_Stat_2_3; LP20160725_Stat_20_1; LP20160725_Stat_21_1; LP20160725_Stat_22_1; LP20160725_Stat_23_3; LP20160725_Stat_24_1; LP20160725_Stat_25_3; LP20160725_Stat_26_1; LP20160725_Stat_27_1; LP20160725_Stat_28_1; LP20160725_Stat_29_1; LP20160725_Stat_3_1; LP20160725_Stat_30_1; LP20160725_Stat_31_1; LP20160725_Stat_32_1; LP20160725_Stat_33_1; LP20160725_Stat_34_1; LP20160725_Stat_35_1; LP20160725_Stat_36_1; LP20160725_Stat_37_1; LP20160725_Stat_38_1; LP20160725_Stat_39_1; LP20160725_Stat_4_3; LP20160725_Stat_40_1; LP20160725_Stat_41_1; LP20160725_Stat_42_1; LP20160725_Stat_43_1; LP20160725_Stat_44_1; LP20160725_Stat_45_1; LP20160725_Stat_46_1; LP20160725_Stat_47_1; LP20160725_Stat_48_1; LP20160725_Stat_49_1; LP20160725_Stat_5_3; LP20160725_Stat_50_1; LP20160725_Stat_51_1; LP20160725_Stat_52_1; LP20160725_Stat_53_1; LP20160725_Stat_54_1; LP20160725_Stat_55_1; LP20160725_Stat_56_3; LP20160725_Stat_6_1; LP20160725_Stat_7_1; LP20160725_Stat_8_1; LP20160725_Stat_9_1; Ludwig Prandtl; North Sea; S001; S002; S003; S004; S005; S006; S007; S008; S009; S010; S011; S012; S013; S014; S015; S016; S017; S018; S019; S020; S021; S022; S023; S024; S025; S026; S027; S028; S029; S030; S031; S032; S033; S034; S035; S036; S037; S038; S039; S040; S041; S042; S043; S044; S045; S046; S047; S048; S049; S050; S051; S052; S053; S054; S055; S056; Sample code/label; Size fraction < 0.020 mm; Size fraction < 0.020 mm, standard deviation; Size fraction < 0.063 mm, mud, silt+clay; Size fraction < 0.063 mm, mud, silt+clay, standard deviation; Size fraction < 0.125 mm; Size fraction < 0.125 mm, standard deviation; Size fraction < 0.250 mm; Size fraction < 0.250 mm, standard deviation; Station label
Offshore wind energy is a steadily growing sector contributing to the worldwide energy production. The impact of these offshore constructions on the marine environment, however, remains unclear in many aspects. In fact, little is known about potential emissions from corrosion protection systems such as organic coatings or galvanic anodes composed of Al and Zn alloys, used to protect offshore structures. In order to assess potential chemical emissions from offshore wind farms and their impact on the marine environment water and sediment samples were taken in the surroundings of offshore wind farms of the German Bight between 25.07.2016 and 02.08.2016. The sediment samples were taken by a box grab and were analyzed for their grain size distribution by laser diffraction.
title Grain size distribution for sediment samples of Ludwig Prandtl cruise LP20160725
topic Date/Time of event; DEPTH, sediment/rock; Event label; Grab; GRAB; Grain size, LASER Particle Sizer; Helmholtz-Zentrum Hereon; Hereon; Latitude of event; Longitude of event; LP20160725; LP20160725_Stat_1_3; LP20160725_Stat_10_3; LP20160725_Stat_11_1; LP20160725_Stat_12_1; LP20160725_Stat_13_1; LP20160725_Stat_14_3; LP20160725_Stat_15_1; LP20160725_Stat_16_1; LP20160725_Stat_17_3; LP20160725_Stat_18_1; LP20160725_Stat_19_1; LP20160725_Stat_2_3; LP20160725_Stat_20_1; LP20160725_Stat_21_1; LP20160725_Stat_22_1; LP20160725_Stat_23_3; LP20160725_Stat_24_1; LP20160725_Stat_25_3; LP20160725_Stat_26_1; LP20160725_Stat_27_1; LP20160725_Stat_28_1; LP20160725_Stat_29_1; LP20160725_Stat_3_1; LP20160725_Stat_30_1; LP20160725_Stat_31_1; LP20160725_Stat_32_1; LP20160725_Stat_33_1; LP20160725_Stat_34_1; LP20160725_Stat_35_1; LP20160725_Stat_36_1; LP20160725_Stat_37_1; LP20160725_Stat_38_1; LP20160725_Stat_39_1; LP20160725_Stat_4_3; LP20160725_Stat_40_1; LP20160725_Stat_41_1; LP20160725_Stat_42_1; LP20160725_Stat_43_1; LP20160725_Stat_44_1; LP20160725_Stat_45_1; LP20160725_Stat_46_1; LP20160725_Stat_47_1; LP20160725_Stat_48_1; LP20160725_Stat_49_1; LP20160725_Stat_5_3; LP20160725_Stat_50_1; LP20160725_Stat_51_1; LP20160725_Stat_52_1; LP20160725_Stat_53_1; LP20160725_Stat_54_1; LP20160725_Stat_55_1; LP20160725_Stat_56_3; LP20160725_Stat_6_1; LP20160725_Stat_7_1; LP20160725_Stat_8_1; LP20160725_Stat_9_1; Ludwig Prandtl; North Sea; S001; S002; S003; S004; S005; S006; S007; S008; S009; S010; S011; S012; S013; S014; S015; S016; S017; S018; S019; S020; S021; S022; S023; S024; S025; S026; S027; S028; S029; S030; S031; S032; S033; S034; S035; S036; S037; S038; S039; S040; S041; S042; S043; S044; S045; S046; S047; S048; S049; S050; S051; S052; S053; S054; S055; S056; Sample code/label; Size fraction < 0.020 mm; Size fraction < 0.020 mm, standard deviation; Size fraction < 0.063 mm, mud, silt+clay; Size fraction < 0.063 mm, mud, silt+clay, standard deviation; Size fraction < 0.125 mm; Size fraction < 0.125 mm, standard deviation; Size fraction < 0.250 mm; Size fraction < 0.250 mm, standard deviation; Station label
url https://doi.org/10.1594/PANGAEA.943761