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Research, Development and Industrialisation
From Functional Material Design to Sustainable Building Applications
We research and develop eco-functional material constituents and their integration into composite building materials, with a focus on environmental compatibility, multifunctional performance and resource efficiency.
Our work begins with functional micro-aggregates, mineral materials and composite interfaces. We investigate how air purification, humidity regulation, thermal management, fire resistance and electromagnetic protection can be incorporated into building products, supporting the development of sustainable materials with enhanced functionality.
Eco-functional constituents are the basic components that impart specific functions to composite building materials. They may take the form of micro-aggregates, particles, fibres, powders or surface-modified additives.
We investigate how composition, pore structure, surface properties and interfacial interactions influence responses to light, heat, electrical and magnetic fields, and changes in temperature and humidity. This provides a basis for connecting microscopic material design with performance in use.
We investigate adsorptive, photocatalytic and combined purification constituents for integration into wall coatings, decorative panels, ceramics and porous building materials.
Evaluation focuses on pollutant removal performance, operating conditions, adsorption saturation, regeneration potential, reaction by-products and long-term functional stability.
Through the design of functional minerals, active components and carrier structures, we investigate materials intended to limit microbial attachment, inhibit mould growth and control odours.
Key considerations include the immobilisation and release of active components, resistance to cleaning, service life and environmental safety. Potential applications include kitchens, bathrooms, public buildings and humid environments.
We explore the moisture absorption, storage and release properties of porous minerals and composites to develop wall materials, finishes and panels capable of passive humidity regulation.
Research addresses pore size distribution, moisture exchange rates, cyclic stability and compatibility with the host material, while maintaining dimensional stability and resistance to mould.
We investigate lightweight porous constituents, low-conductivity fillers, phase-change components and materials with tailored infrared properties for building energy applications.
Our work explores combinations of insulation, heat storage and temperature regulation, with particular attention to thermal conductivity, thermal cycling stability, fire performance and structural durability.
We research conductive, dielectric and magnetic constituents for electromagnetic shielding and absorption in building panels, coatings and enclosure components.
Material composition, filler distribution, layered structures and interfaces are tailored to the intended frequency range, while considering weight, installation requirements and durability.
We develop inorganic flame-retardant constituents and composite formulations for polymer coatings, decorative materials and building panels.
Evaluation considers flame-retardant performance, smoke emissions, mechanical properties and performance retention after ageing.
For specific building environments, we investigate low-permeability matrices, adsorptive constituents and multilayer structures for controlling radon migration and providing specialised protection.
Each application is assessed against its intended protective function, with attention to intrinsic material radioactivity, barrier performance, joint sealing and long-term stability.
Drawing on the multiscale structures and interfaces found in natural materials, we investigate self-cleaning, self-healing and temperature- or humidity-responsive systems.
We also explore the physical properties and integration of ion-releasing and far-infrared-emitting constituents, using measurable material performance and safety in use as the basis for evaluation.
We investigate interactions between functional constituents and cement, gypsum, ceramic, glass and polymer matrices, optimising interfacial adhesion, dispersion and processing stability.
Purification, humidity regulation, insulation, flame retardancy and protective functions are combined according to application requirements.
We assess both beneficial interactions and potential conflicts between components to preserve strength, durability and workability.
Research covers coating, impregnation, blending, layered construction and bulk forming processes to incorporate functional constituents into finishes, panels, blocks and other building components.
We evaluate the effects of cleaning, abrasion, temperature and humidity cycling, and prolonged exposure on functional performance.
Where appropriate, we investigate regeneration, surface renewal and maintenance methods.
We develop material and component solutions suited to manufacturing, installation and maintenance across a range of building applications.
Functional wall coatings, decorative mortars, wall panels and ceiling materials.
Antimicrobial, mould-resistant, odour-control and cleanable finishes.
Composite panels for insulation, humidity regulation and heat storage.
Functional ceramics, mineral-based panels and porous components.
Electromagnetic shielding, absorption and radon barrier materials.
Functional surface upgrades and energy-efficiency improvements.
Development begins with defined user requirements and progresses through constituent selection, composite design, process development and application validation.
We welcome collaboration with mineral suppliers, functional additive developers, building material manufacturers, architectural practices, construction companies and research institutions.
Contact Us
Share your intended application, host material, target functions, production conditions and performance requirements with us to explore opportunities for research, validation and industrial application.
