Preliminary results 18 months post-deployment reveal that the NID scour protection system enhances habitat potential for local species and improves the ecological function of the structure and its surroundings, resulting in increased overall biodiversity compared to control sites. The results from the ecological study, based on mapping and characterizing the sites, show that the design, materials, and habitat creation influence the types of communities that form in these areas – each with distinct ecological traits.
The results demonstrate that the studied nature-inclusive scour protection system creates intentional habitats that different organisms use to settle and grow and show more biological accumulation compared to the rocks. The study shows that the interlocking design of ECOncrete scour protection units forms a complex system creating favorable habitats and niches for a wide range of organisms, especially for oysters and clams, supporting ecosystem development within the scour protection system.
Data from multi-beam surveys with 13 months difference including all 2024 storm events, show no movement of the ECOncrete units. These data align with the results from 3D physical model tests conducted at the COB of Gent University on a movable (sandy) seabed in which the ECOncrete scour protection system around a monopile on top of a movable seabed was submitted to severe wave loads simulating real prototype conditions in the Atlantic and North Sea demonstrating great hydraulic stability.
These results unlock new opportunities for the offshore supply chain by providing validation for an innovative, locally sourced NID scour protection solution, which acts as a full or complementary armor layer for offshore structures to reduce their ecological footprint on marine ecosystems, create opportunities for biodiversity enhancement, and benefit fisheries.