research, technology and innovation
Green light for plant-based food packaging
Bioplastic packaging that extends the shelf life of food and tells us when it is no longer fit to eat will result in less waste.
Eco-cement from Norwegian clay
Blue clay from Norway is emerging as a climate-friendly alternative to cements used to make concrete – turning a waste material into a resource.
Lab for testing membranes, fuel cells and electrolysers
In the lab in Oslo we can test membranes, fuel cells and electrolysers under real operating conditions. Experiments can be carried out at pressures up to 30 bars and temperatures up to 1100°C.
Process Metallurgical Laboratories
Modern production of high quality metallic materials requires advanced knowledge of pyro-metallurgical processes. SINTEF optimises metallurgical processes and raw materials, using a combination of laboratory scale and pilot scale experimental techniques, combined with thermochemical modelling.
Tribology is the multidisciplinary science on wear, friction and lubrication of interacting surfaces in relative motion. Research in tribology is often highly dependent on the final application. The mission of the Tribology Lab at SINTEF/NTNU is to adapt our knowledge and equipment to our clients’ needs.
MICROFIBRE: Evaluating the fate, effects and mitigation measures for microplastic fibre pollution in aquatic environments
To understand the environmental behaviour and impacts of microplastic fibres (MPFs) in order to develop a decision support framework that enables garment manufacturers to make environmentally informed choices in their material selection.
SCALE – Production of Scandium compounds and Scandium Aluminum alloys from European metallurgical by- products
Scandium (Sc) is one of the highest valued elements in the periodic table and an element which is usually grouped in REEs as it shares many characteristics with Yttrium. The SCALE project sets about to develop and secure a European Sc supply chain through the development of technological innovations, which will allow the extraction of Sc from European industrial residues. This will be achieved through the development of a number of innovative extraction, separation, refining and alloying technologies that will be validated in an appropriate laboratory and bench scale environment to prove their technical and economic feasibility.
SiC4LED – Novel fluorescent silicon carbide growth approach for white LEDs
The main objective of the project aims to grow a new type of compound semiconductor crystal, fluorescent silicon carbide (f-SiC), by applying the liquid solution phase epitaxial (LPE) technology, and to preliminarily examine the feasibility of fabricating the monolithic white light-emitting diodes (LEDs). It is expected to save up to 20% of energy consumption for SiC growth.