ICEBERG focuses on circular design and pre-demolition audits for material recovery, while GEOCOND addresses sustainable geothermal building systems.
CIMSA CIMENTO SANAYI VE TICARET ANONIM SIRKETI
Turkish cement manufacturer contributing industrial-scale testing for circular construction, smart manufacturing, and advanced materials in EU research projects.
Their core work
CIMSA is a major Turkish cement and building materials manufacturer that participates in EU research to advance its industrial processes and product sustainability. Their H2020 involvement spans geothermal energy systems, smart manufacturing with AI/IoT, circular construction materials recovery, and advanced protective coatings — all areas directly tied to modernizing cement and construction industry operations. They bring real industrial infrastructure and domain knowledge as an end-user partner, testing research outcomes in demanding heavy-industry environments.
What they specialise in
HyperCOG deployed cyber-physical systems, ML, and IoT analytics for cognitive production plants; FORGE applies machine learning to coating development.
FORGE specifically targets compositionally complex materials, thermal spray, and laser cladding for corrosion and erosion resistance in high-energy processing.
GEOCOND focused on advanced materials and processes to improve shallow geothermal system performance and cost-efficiency.
ICEBERG introduced RFID and QR smart tracing systems for tracking building materials through circular supply chains.
How they've shifted over time
CIMSA's early H2020 work (2017-2019) centered on digital transformation of industrial operations — AI, IoT data analytics, cyber-physical systems, and smart manufacturing. Their later projects (2020-2024) shifted decisively toward circular economy and sustainable materials, with focus on BIM-based demolition audits, circular building design, and advanced coatings for durability. This arc mirrors the broader construction industry pivot from digitalization toward sustainability and circularity compliance.
CIMSA is moving toward circular economy in construction and materials durability — expect future interest in low-carbon cement, waste-derived building products, and digital material passports.
How they like to work
CIMSA exclusively participates as a partner, never as coordinator, which is typical for a large industrial company contributing real-world testing environments and domain expertise rather than leading research design. With 75 unique partners across 15 countries from just 4 projects, they operate in large consortia (averaging ~19 partners per project). This suggests they function as an industrial validation partner — valuable for consortia that need a heavy-industry end-user to demonstrate results at scale.
Broad European network spanning 75 unique partners across 15 countries, built through participation in large Innovation Action and Research consortia. As a Turkish industrial partner, they bridge EU research networks with one of Europe's largest construction markets.
What sets them apart
CIMSA offers something rare in EU consortia: a large-scale cement manufacturer willing to serve as an industrial testbed for research outcomes. While many construction companies participate passively, CIMSA's project portfolio shows genuine engagement across digitalization, circular economy, and materials science. For consortium builders, they provide access to real cement production infrastructure in Turkey — a high-growth construction market — making them an ideal partner for demonstrating and validating industrial innovations at scale.
Highlights from their portfolio
- ICEBERGTheir largest-funded project (EUR 355,493), combining BIM-based pre-demolition audits with RFID tracing and circular design — directly relevant to upcoming EU construction waste regulations.
- HyperCOGDemonstrates CIMSA's digital ambition: applying AI, IoT, and cyber-physical systems to transform traditional cement production into a cognitive manufacturing operation.
- FORGEAddresses a core industry pain point — corrosion and erosion in high-energy processing — using advanced coating technologies and machine learning for materials engineering.