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Organization

ONDERZOEKSCENTRUM VOOR AANWENDING VAN STAAL NV

Belgian applied research centre specialising in advanced steel alloys, protective coatings, and corrosion-resistant materials for extreme industrial environments.

Research institutemanufacturingBENo active H2020 projectsThin data (2/5)
H2020 projects
2
As coordinator
0
Total EC funding
€542K
Unique partners
26
What they do

Their core work

OCAS (Research Centre for the Application of Steel) is a Belgian applied materials research company that develops and tests advanced metallic alloys and surface coatings for demanding industrial environments. Their core work involves engineering materials that can withstand extreme heat, corrosion, and mechanical wear — whether in next-generation solar power plants or high-energy industrial processing equipment. In EU projects, they contribute as a specialist materials partner, providing expertise in alloy design, thermal spray deposition, laser cladding, and performance testing under real-world stress conditions. They also apply machine learning and knowledge-based engineering methods to accelerate materials development and coating selection.

Core expertise

What they specialise in

Novel alloys and high-performance metallic materialsprimary
1 project

In COMPASsCO2, OCAS develops novel alloys and particle materials capable of withstanding supercritical CO2 and concentrated solar heat exchanger conditions.

Protective coatings — thermal spray and laser claddingprimary
1 project

In FORGE, OCAS works on cost-effective coatings for high-energy processing applications using thermal spray and laser cladding techniques.

Corrosion and erosion resistanceprimary
1 project

FORGE specifically targets corrosion and erosion failure modes, making OCAS a relevant partner for any consortium dealing with material degradation in harsh environments.

Compositionally complex materials (CCMs / high-entropy alloys)secondary
1 project

FORGE involves compositionally complex materials — a class of multi-principal-element alloys increasingly explored for coating and structural applications.

ML and knowledge-based engineering for materials designemerging
1 project

FORGE lists machine learning and knowledge-based engineering as keywords, indicating OCAS is integrating data-driven methods into materials selection and development workflows.

Evolution & trajectory

How they've shifted over time

Early focus
Supercritical CO2 energy materials
Recent focus
Intelligent coatings for industrial durability

Both H2020 projects began in 2020 and ran concurrently, so the keyword split between "early" and "recent" reflects parallel project tracks rather than a genuine timeline shift. One track targets extreme-temperature energy materials (supercritical CO2, solar power), while the other targets industrial coating durability (corrosion, erosion, thermal spray). The inclusion of machine learning and knowledge-based engineering in the FORGE project suggests that OCAS is actively building computational capabilities alongside their traditional experimental materials work — a direction that is likely to expand as the coatings field increasingly relies on data-driven alloy and process optimization.

OCAS appears to be broadening from core steel application research into data-assisted materials design, making them an increasingly attractive partner for consortia that need both experimental materials expertise and computational materials engineering capability.

Collaboration profile

How they like to work

Role: specialist_contributorReach: European10 countries collaborated

OCAS participates exclusively as a consortium partner — they have not led any H2020 project — which positions them as a focused specialist contributor rather than a project driver. Despite only two projects, they have engaged with 26 distinct partners across 10 countries, suggesting they slot into large, multi-partner Research and Innovation Actions. This wide network relative to a small project count indicates OCAS is valued as a niche technical resource that diverse consortia seek out specifically for materials expertise.

OCAS has built a network of 26 unique consortium partners spanning 10 countries through just two projects, reflecting the large, internationally diverse consortia typical of RIA-funded energy and advanced materials research. Their Belgian base in Zelzate (near Ghent) places them within a strong industrial corridor, though their project partnerships extend well across Europe.

Why partner with them

What sets them apart

OCAS occupies a rare niche as an industry-owned (private company, non-SME) applied research centre focused specifically on steel and advanced metallic materials — a profile that sits between a university research group and a full industrial R&D department. This means they bring application-oriented rigour and industrial relevance that academic partners cannot, while also offering experimental depth that most industrial companies outsource. For consortium builders in energy, manufacturing, or heavy industry, OCAS represents a credible bridge between materials science and real-world deployment.

Notable projects

Highlights from their portfolio

  • FORGE
    The largest of OCAS's two projects by funding (€381,502), FORGE targets a commercially high-value problem — durable coatings for industrial wear — and uniquely combines physical deposition methods (thermal spray, laser cladding) with machine learning, signalling a methodological evolution in how OCAS approaches materials engineering.
  • COMPASsCO2
    This project places OCAS in the concentrated solar power and supercritical CO2 energy transition space, demonstrating that their materials expertise extends beyond traditional manufacturing into next-generation clean energy infrastructure — a strategically important expansion of their portfolio.
Cross-sector capabilities
energy — materials for supercritical CO2 and concentrated solar power systemsenvironment — corrosion-resistant coatings that extend component lifetime and reduce industrial wastetransport — wear-resistant alloys and coatings applicable to automotive and aerospace structural parts
Analysis note: Only two projects in the dataset, both starting in the same year (2020), which limits any meaningful temporal evolution analysis. The early/recent keyword split reflects two parallel projects, not a genuine chronological shift. Profile is directionally reliable but should be revisited if additional project data becomes available.
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