GROUNDBREAKING   

                                         EARTH OBSERVATION / GIS

NATURAL RESOURCE MANAGEMENT     

                                 

Next generation Technology for ecosystem based marine management uncovering vertebra richness of the nordsea-skagerak-kattegat region

A new scientific platform has mapped marine biodiversity across the Scandinavian sector of the Greater North Sea and found major gaps between where marine life is concentrated and where protection currently exists.

The results are based on more than 100,000 species records combined with oceanographic data from the EU Copernicus Marine Service. Using machine learning and neural-network modelling, the platform identifies biodiversity patterns, key environmental drivers, and likely future shifts across the North Sea-Skagerrak-Kattegat region.

The study covers 43 marine vertebrate species, including fish, seabirds, and marine mammals, as well as broader richness models for total, taxonomic, and functional biodiversity. Many of the species included are sensitive, protected, or of high conservation value.

One of the clearest findings is that marine fronts and currents strongly shape species richness. In several areas, the richest biodiversity follows dynamic oceanographic features such as the Norwegian Trench and the Swedish west coast. The models also identify clear temperature and salinity thresholds linked to richness and assemblage structure.

 

Figure 1. Predicted species richness from two modelling approaches, showing broadly similar spatial patterns. Marine fronts align closely with areas of elevated richness.

Just as importantly, major biodiversity hotspots remain weakly protected or entirely outside current MPAs. In some places, high-richness areas and strict protection overlap only partly, suggesting that existing networks still fall short of an ecosystem-based design.

Figure 2. Predicted species richness with existing MPAs overlaid. Danish strictly protected areas are shown with black hatching.

This is especially relevant because EU and regional frameworks, including the Marine Strategy Framework Directive, OSPAR, and HELCOM, all call for coherent marine protection networks that reflect ecological realities, not just administrative boundaries.

The study also points to climate-related change. The models identify a clear temperature optimum for peak richness, and richness is shifting toward deeper waters. That pattern is consistent with climate-driven redistribution toward preferred thermal habitat and may reduce the effectiveness of some present-day protected areas if species continue to move.

The platform can also be combined with fisheries data. Early overlays with trawling intensity suggest that some strictly protected areas in Denmark may have been placed where fishing conflict is relatively low rather than where biodiversity value is highest. That does not diminish their legal status, but it does underline the need for more transparent, data-driven spatial planning.

Figure 3. Average annual trawling swept-area ratio (OSPAR, 2009-2020) overlaid with MPAs. Several Danish strictly protected areas appear to avoid high trawling intensity rather than coincide with biodiversity hotspots.

Overall, the work provides a ready-to-use scientific basis for cross-border ecosystem management in the Scandinavian Greater North Sea. It can support future negotiations, guide marine protected area design, and help monitor ecological change as climate pressures intensify.

Figure 4. Orca occurrence predicted from one derived oceanographic variable, the strongest predictor in the model.

The basic work has been developed in connection with the EU Biodiversa+ Climate Invasives project (2023-2026), where Prins Engineering leads the work on marine fronts and biodiversity. The Climate Invasive work has been supported by Innovation Fund Denmark, and preliminary results were presented to Danish stakeholders in early 2026.

The platform is under continuous development, and can service most issues regarding the marine ecology – e.g., mechanisms driving primary producers over time, alien invasive species hot-spots and dispersal or specific species such as birds, fish or whales.

 

 

 

 

Client: EU       Funding: InnovationFund (DK), EU and Prins (>25%)          

 

privacy2026@prins engineering.com

   
 
About Us    |    References    |    Services    |    CV's    |    Contacts    |    Press
 

Copyright © PRINS, Eng. 2026
Privacy Policy   |   Terms of Use