accessibility__skip_menu__jump_to_main

Full text: Nontargeted Screening to Unravel Offshore Wind Farm Chemical Fingerprints

Environmental Science & Technology 
Elena Hengstmann — Federal Maritime and Hydrographic 
Agency (BSH), Marine Sciences Department, Hamburg 
22589, Germany 
Torben Kirchgeorg — Federal Maritime and Hydrographic 
Agency (BSH), Marine Sciences Department, Hamburg 
22589, Germany 
Koen Parmentier — Royal Belgian Institute of Natural Sciences, 
Operational Directorate Natural Environment, Brussels 1000, 
Belgium; ® orcid.org/0000-0003-1088-9125 
Christof Van Poucke — Flanders Research Institute for 
Agriculture, Fisheries and Food, Animal Sciences Unit— 
Aquatic Environment and Quality, Ostend 8400, Belgium; 
» orcid.org/0000-0001-7566-925X 
Putu Yolanda Yulikayani — Flanders Research Institute for 
Agriculture, Fisheries and Food, Animal Sciences Unit— 
Aquatic Environment and Quality, Ostend 8400, Belgium; 
B orcid.org/0009-0009-1884-6577 
Bavo De Witte — Flanders Research Institute for Agriculture, 
Fisheries and Food, Animal Sciences Unit—Aquatic 
Environment and Quality, Ostend 8400, Belgium 
Complete contact information is available at: 
attps://pubs.acs.org/10.1021 /acs.est.5c17939 
Author Contributions 
D.V.: Methodology, formal analysis, investigation, writing— 
original draft, visualization. P.Z.-C.: investigation, writing— 
review & editing. K.D.C.: Conceptualization, investigation, 
writing—review & editing. J.C.-J.: Conceptualization, writing— 
review & editing. E.H.: Conceptualization, investigation, 
writing—review & editing. T.K.: Investigation, writing—review 
& editing. K.P.: Methodology, writing—review & editing. 
C.V.P.: Methodology, investigation, writing—review & editing. 
P.Y.Y.: Methodology, writing—review & editing. B.D.W.: 
Conceptualization, methodology, writing—review & editing, 
supervision. 
Funding 
This study was done as part of the Interreg North Sea Project 
Anemoi (Project number 41—-2—13—22), which was cofunded 
5y the European Union. 
Notes 
The authors declare no competing financial interest. 
BE ACKNOWLEDGMENTS 
The author thanks the crew of the research vessel Belgica, which 
was financed by Belspo and RBINS OD Nature and the crew of 
‘he research vessel VWES Atair (BSH, Germany). The authors 
also thank the operators of the sampled wind farms for their 
cooperation, Hereon for the support during the sampling in the 
GPNS, Nadege Bely from IFREMER for the sample preparation 
and transportation, and the laboratory technicians of the ILVO 
Marine Analytical Lab, Ecochem, and Stijn Degroote from the 
chromatographic lab of ILVO Technology of Food for technical 
support. 
E REFERENCES 
(1) United Nations. Renewable energy—powering a safer future 2025 
https: //www.un.org/en/climatechange /raising-ambition/renewable- 
energy. (accessed June 24, 2025). 
(2) Directorate-General for Energy. In Focus: EU Leading the Global 
Energy Transition, 2024. (accessed June 24, 2025). 
pubs.acs.org/est 
BA STE- 
(3) European Commission. Share of electricity from renewables falls 
in early 2025 https://ec.europa.eu/eurostat/web/products-eurostat- 
news/w/ddn-20250619-2. (accessed June 24, 2025). 
(4) European Commission. Offshore renewable energy 2025 https:// 
anergy.ec.europa.eu/topics/renewable-energy/offshore-renewable- 
anergy_en#eu-strategy-on-offshore-renewable-energy. (accessed June 
24, 2025). 
(5) WindEurope. Wind energy in Europe: 2024 Statistics and the 
autlook for 2025—2030 2025 https://windeurope.org/intelligence- 
platform/product/wind-energy-in-europe-2024-statistics-and-the- 
autlook-for-2025-2030/. (accessed June 24, 2025). 
(6) Buyse, J.; Hostens, K.; Degraer, S.; De Backer, A. Offshore wind 
farms affect the spatial distribution pattern of plaice Pleuronectes 
platessa at both the turbine and wind farm scale. ICES J. Mar. Sci. 2022, 
79 (6), 1777-1786. 
(7) Buyse, J.; Hostens, K.; Degraer, S.; De Troch, M.; Wittoeck, J.; De 
Backer, A. Increased food availability at offshore wind farms affects 
trophic ecology of plaice Pleuronectes platessa. Sci, Total Environ. 2023, 
862, No. 160730. 
(8) Franco, A.; Quintino, V.; Elliott, M. Benthic monitoring and 
sampling design and effort to detect spatial changes: a case study using 
data from offshore wind farm sites. Ecol. Indic, 2015, 57, 298—304. 
(9) Bat, L.; Sezgin, M.; Sahin, F. Impacts of OWF installations on 
fisheries: A Literature Review. J. Coastal Life Med. 2013, 1 (3), 241— 
282. 
(10) Müller, A.; Juretzek, C.; Boethling, M. Assesment of Effects of 
Offshore Wind Energy Facilities on the Marine Environment; Bundesamt 
für Seeschifffahrt und Hydrographie; BSH: 2019. 
(11) Heinis, F.; de Jong, C.; von Benda-Beckmann, S.; Binnerts, B. 
Cumulative effects of offshore wind farm construction on harbour porpoises, 
Framework for assessing ecological and cumulative effects—2018; 
HWE rapport 2019. 
(12) Danish Maritime Authority. Assessment of Denmark’s Spatial Plan 
2021. 
(13) Vandendriessche, S.; Hostens, K.; Courtens, W.; Stienen, E. W. 
Monitoring the effects of offshore wind farms: evaluating changes in 
fishing effort using Vessel Monitoring System data: targeted monitoring 
results. In Offshore wind farms in the Belgian part of the North Sea: 
Selected findings from the baseline and targeted monitoring; Royal Belgian 
“nstitute of Natural Sciences, 2011; pp 83-92. 
(14) Kirchgeorg, T.; Weinberg, I.; Hörnig, M.; Baier, R.; Schmid, M.; 
Brockmeyer, B. Emissions from corrosion protection systems of 
offshore wind farms: Evaluation of the potential impact on the marine 
anvironment. Mar. Pollut, Bull, 2018, 136, 257—268. 
(15) Hengstmann, E.; Corella, P. Z.; Alter, K.; Belzunce-Segarra, M. J.; 
Booth, A. M.; Castro-Jimenez, J.; Czerner, N.; De Cauwer, K.; Deviller, 
G.; Gomiero, A.; et al. Chemical emissions from offshore wind farms: 
rom identification to challenges in impact assessment and regulation. 
Mar, Pollut, Bull, 2025, 215, No. 117915. 
(16) Ebeling, A; Wippermann, D.; Zimmermann, T.; Klein, O,; 
<irchgeorg, T.; Weinberg, I; Hasenbein, S.; Plaß, A; Pröfrock, D. 
'nvestigation of potential metal emissions from galvanic anodes in 
»ffshore wind farms into North Sea sediments. Mar. Pollut. Bull. 2023, 
194, No. 115396. 
(17) Ebeling, A.; Wippermann, D.; Zimmermann, T.; Klein, O.; 
Kirchgeorg, T.; Weinberg, I.; Plass, A.; Hasenbein, S.; Pröfrock, D. 
Coupling metal concentrations and drift simulations for tracing 
amissions from offshore wind farms. Mar, Pollut, Bull. 2025, 214, 
No. 117810. 
(18) Watson, G. J.; Banfield, G.; Watson, S.; Beaumont, N.; Hodkin, 
A. Offshore wind energy: assessing trace element inputs and the risks 
for co-location of aquaculture. npj Ocean Sustainability 2025, 4 (1), 
No. 1. 
(19) Momber, A. W.; Marquardt, T. Protective coatings for offshore 
wind energy devices (OWEAs): A review. J. Coat. Technol. Res. 2018, 15 
(1), 13—40. 
(20) Bell, A. M.; Keltsch, N.; Schweyen, P.; Reifferscheid, G.; Ternes, 
£.; Buchinger, S. UV aged epoxy coatings- Ecotoxicological effects and 
released compounds. Water Res. X 2021, 12, No. 100105. 
https://doi.org/10.1021/acs.est.5c17939 
Environ. Sci. Technol. XXXX, XXX, XXX—-XXX
	        
Waiting...

Note to user

Dear user,

In response to current developments in the web technology used by the Goobi viewer, the software no longer supports your browser.

Please use one of the following browsers to display this page correctly.

Thank you.