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Royal Netherlands Institute for Sea Research


Fishing does not attract lesser black-backed gulls out of windfarms

A study by Royal Netherlands Institute for Sea Research found that Lesser Black-backed Gulls rarely visit wind farms off the Zeeland coast, except for some male birds. Despite being attracted to fishing boats outside the wind farm, the gulls' behavior suggests they avoid entering the wind farm due to unknown reasons.

SourceRoyal Netherlands Institute for Sea Research·JournalJournal of Animal Ecology·TypeObservational study·DateJun 9, 2026

Global warming and CO2 emissions 56 million years ago resulted in massive forest fires and soil erosion

A 56-million-year-old study found that global warming caused by CO2 emissions led to widespread forest fires and soil erosion. The research team discovered that even small changes in temperature can have significant impacts on ecosystems, leading to the release of more carbon into the atmosphere.

SourceRoyal Netherlands Institute for Sea Research·JournalProceedings of the National Academy of Sciences·TypeExperimental study·DateJan 19, 2026

Chinese intertidal shellfish farming: an unexpected fuel station for millions of migrating shorebirds

A decade-long study found that cultured shellfish distribution determines spatial hotspots and seasonal peaks of shorebirds along China's coast. The research suggests managed mariculture is a better solution to food security for migratory bird protection than imposing a ban.

SourceRoyal Netherlands Institute for Sea Research·JournalNature Communications·TypeObservational study·DateDec 11, 2025

Biobased concrete substitute can give coastal restoration a natural boost

Researchers developed Xiriton, a biobased concrete substitute that captures CO2 and provides a natural boost to coastal restoration. The material is made from chopped grass, pozzolan, slaked lime, shells, sand, and seawater, and has been shown to be suitable for restoring tidal areas with high biodiversity.

SourceRoyal Netherlands Institute for Sea Research·JournalFrontiers in Marine Science·TypeExperimental study·DateNov 24, 2025

1% of offshore wind investments could restore millions of hectares of marine life

A new study suggests that dedicating just 1% of global offshore wind investments by 2050 could fund the restoration of millions of square kilometers of marine ecosystems. This approach would not only support the energy transition but also make a net-positive contribution to large-scale ecosystem restoration.

SourceRoyal Netherlands Institute for Sea Research·JournalBioScience·TypeData/statistical analysis·DateJul 7, 2025

Impact of climate change on marine life much bigger than previously known

A new analysis method reveals that climate change affects not only survival, metabolism, and skeleton health but also physiology, reproduction, behavior, and physical development in fish and invertebrates. The study suggests up to 100% of biological processes may be affected, with mitigation efforts potentially reducing impacts.

SourceRoyal Netherlands Institute for Sea Research·JournalNature Communications·TypeMeta-analysis·DateApr 9, 2024

Beaches and dunes globally squeezed by roads and buildings

Researchers found that human infrastructure is generally located very close to the sea, with an average distance of 390 meters from the coastline. Designating nature reserves can help protect beaches and dunes from rising sea levels, flooding, and biodiversity loss. Currently, only 16% of the world's sandy coasts are protected.

SourceRoyal Netherlands Institute for Sea Research·JournalNature Communications·TypeSurvey·DateJan 11, 2024

Social distancing seals: an evolutionary response to pathogen transmission?

Researchers analyzed aerial images of seal colonies to study distribution patterns and found harbour seals stay at larger distances from conspecifics than grey seals, suggesting an evolutionary response to respiratory virus susceptibility. This finding provides opportunities to gather more information about pinnipeds in remote regions.

SourceRoyal Netherlands Institute for Sea Research·JournalRoyal Society Open Science·TypeObservational study·DateAug 9, 2023

Bacteria really eat plastic

A laboratory experiment shows that bacteria can digest and break down plastic, producing CO2 and other harmless substances. While microbial digestion is not a solution to the massive problem of oceanic plastic, it may provide part of the explanation for where plastic 'missing' in oceans stays.

SourceRoyal Netherlands Institute for Sea Research·JournalMarine Pollution Bulletin·TypeExperimental study·DateJan 23, 2023

Sunlight pulps the plastic soup

Experiments show that UV light from the sun breaks down plastics on the ocean surface, turning them into smaller, invisible nanoplastic particles. This process could account for a substantial amount of the 'Missing Plastic Paradox', where plastic waste in the ocean is only a fraction of what has been littered.

SourceRoyal Netherlands Institute for Sea Research·JournalMarine Pollution Bulletin·TypeExperimental study·DateJan 11, 2023

Linking fossil climate proxies to living bacteria helps climate predictions

A new study reveals that certain types of lipids found in ancient fossils are produced by specific living bacteria. By identifying these microorganisms and understanding how they produce the lipids, scientists can create more accurate climate reconstructions. This discovery also sheds light on the early evolution of life on Earth.

Microphytobenthos in the Dutch Wadden Sea feeds on ‘left-overs’ in the bottom

Research reveals that microphytobenthos, a key component of the Dutch Wadden Sea food web, obtains its nutrients primarily from detrital nitrogen in pore water. This finding provides new insights into the ecosystem's dynamics and highlights the importance of considering all nutrient pools in models predicting future changes.

SourceRoyal Netherlands Institute for Sea Research·JournalFrontiers in Ecology and Evolution·DateNov 29, 2022

Machine learning helps to locally restore wetlands for coastal protection

International researchers used machine learning to forecast marsh establishment under various environmental conditions, revealing that controllable local factors are more important than global climate change. The study suggests smart management of tidal flats can counteract threats and strengthen wetlands.

SourceRoyal Netherlands Institute for Sea Research·JournalGeophysical Research Letters·TypeData/statistical analysis·DateNov 16, 2021