Projects in chemistry

How can we raise consumer awareness about the risks of direct imports via e-commerce? In this project, we explore how to inform consumers in a fun yet fact-based way using short films.

The FUSE project aims to generate new knowledge and develop cutting-edge green technologies for the sustainable production of furan-based platform chemicals.

The European Parliament has acknowledged that businesses, especially SMEs, need more support to replace hazardous chemicals. In response, the European Commission launched a pilot project to explore how a future EU Substitution Centre, or a network of centres, could help.

The European Parliament has acknowledged that businesses, especially SMEs, need more support to replace hazardous chemicals. In response, the European Commission launched a pilot project to explore how a future EU Substitution Centre, or a network of centres, could help.

The project combines advanced X-ray technology with machine learning to understand the internal structures of a material faster and more accurately. The aim is to develop new AI-driven methods for analyzing materials at the nanoscale. This will eventually enable better control and optimization of manufacturing processes.

Chlorinated solvents have a unique dissolving ability, but they are toxic and can be harmful to both humans’ health and environment. With the help of silico tools, the project aims to find substitute solvents that are less harmful but hopefully just as effective.

RISE coordinated a collaboration research project, Testbed PFAS, together with the Swedish Defence Sector. The project evaluated remediation of PFAS from ground and water, and alternative PFAS-free fire extinguishing agents and methods.

PFAROS is a 5-year project that will provide concrete tools and solutions to support a safer, greener, and more resilient healthcare system for Europe.

Low-value residues from Swedish sawmills and the wood industry have the potential to meet most of the demand for bio-based fuel for domestic air traffic. The project will develop technology for the production of biofuel via a sugar platform process using oil-rich yeast fungi and chemical-catalytic processing into aviation fuel.

The FreeLIB (Fluorine-free Lithium-ion Batteries) project explores how PFAS and other hazardous fluorinated compounds form and are released during lithium-ion battery recycling and investigates methods to effectively reduce these emissions.

URSOILL – Swedish Living Lab works to improve soil health in Swedish cities through research, innovation, and collaboration between municipalities, academia, industry, and citizens. By developing solutions for cleaner, vibrant, and resilient urban soils, URSOILL contributes to greener cities, greater biodiversity, and more sustainable societies.

Stainless steel production generates large amounts of pickling sludge with high levels of both valuable metals and hazardous substances. iSTRESS 2.0 develops circular & climate-friendly processes to recycle resources, reduce landfill requirements & prevent the formation of carcinogenic chromium(VI) – for a safer and more sustainable metal industry.

The pulp and paper industry in Europe produces 17 million tonnes of lignin every year. However, only two per cent is used for purposes other than energy production. The EU project LIGNOFUN aims to address this issue by developing bio-based products from lignin, thereby promoting a more sustainable and circular economy.

The project aimed to replace chlorinated solvents, which are unsuitable from both sustainability and health aspects, in a critical step of the manufacturing process of the active pharmaceutical ingredient vipoglanstat.

Nanoparticle platforms for the delivery of RNA adjuvant and mRNA vaccines offer huge potential for innovation in vaccine technology and drug delivery. One of the benefits is the ability of nanoparticles to protect fragile RNA molecules from degradation by nucleases in the body, increasing the stability and longevity of the treatment.

The amount of textile waste consisting of polyester–cotton blends (polycotton) is close to one hundred million tonnes annually, most of which is currently incinerated or sent to landfill. The household products industry, in turn, relies largely on virgin fossil-based plastics, amounting to hundreds of millions of tonnes globally.

Brewers’ spent grain (BSG) is a by-product that is formed in significant quantities during beer production. Currently, BSG is mainly used for animal feed and production of biogas. However, the high nutritional value of BSG means that it has great potential to be valorised into an innovative, healthy and environmentally sustainable food ingredient.

The FOR-BLEND project, funded by Interreg Aurora, aims to enhance the green transition towards a sustainable economy by creating cross-border knowledge networks. The project focuses on developing a feasible process for managing forest-based residues locally to produce a sustainable fuel blending component through pyrolysis and upgrading.

The project develops new methods to enhance virus detection and surface cleaning efficiency through innovative models and molecular techniques. The results contribute to improved hygiene in societally critical environments such as healthcare, food production, and public spaces, thereby reducing the spread of infections and safeguarding public healt

Norwegian fish farms generate 600,000 tonnes of fish sludge annually, currently discharged into the sea. A cross-border project between Sweden and Norway brings together industry, researchers, and stakeholders from land and sea farming to explore converting this unused sludge into a valuable bio-based raw material for agriculture.

The project develops high-energy, high-protein nutritious food for seniors and thickened beverages for those with swallowing disorders (dysphagia). The goal is to address prevent age-related frailty (foods) and manage dysphagia (beverages).

The ABATE project aims to demonstrate the integration of thermochemical and biochemical processes to convert biomass residues into advanced bio-based refinery intermediates for sustainable transportation fuels.

The Bio-FlexCLC project aims to develop and demonstrate a full-chain technology that utilizes biogenic residues and wastes for flexible CHP production with the possibility of cost-effective CO2 capture.

The textile value chain involves a diverse range of materials, end users, and complex applications. Although there is a shift towards greater sustainability, progress is slow and requires more innovative technologies to address issues like low recycling rates, substitution of hazardous substances, and chemical pollutants.

In the Bio-MeGaFuel project, we proposes a novel route that converts low-value biomass to methanol via an intensified process with a minimum carbon footprint comparable to conventional methods. The process bases on chemical looping gasification to produce biomass-derived syngas which is further converted in membrane reactors to produce methanol.

The EU just passed a new law on more sustainable and circular batteries to support the EU’s energy transition. It is vital that biobased feedstocks be identified and tested for their potential to contribute to battery materials. Spent coffee grounds are an abundant (over 18 million tons per year) source of carbon-containing waste materials.

CESTAP (Competence cEntre in Sustainable Turbine fuels for Aviation and Power) is a centre of competence with academic and industrial partners promoting production and use of sustainable fuels for stationary gas turbines and aviation jet engines.

This project aims to develop and test a concept for waste-to-energy conversion for poultry manure by investigating technical alternatives that could be viably implemented in Sweden.Thermochemical conversion of poultry manure allows farmers to generate their own renewable energy while allowing reuse of phosphorus and potassium through the ash.

Efficient material recycling of fibre reinforced polymers (composites) is necessary to improve the resource efficiency and circularity of complex EoL materials. Thermochemical recycling via pyrolysis followed by recycling of the material in new composites can enable this. 

Making batteries to store clean energy is a dirty process - or was – with NoVOCs unique approach. A consortium of 17 partners will develop manufacturing technology for next-generation lithium-ion batteries, that can eliminate the volatile organic compounds from the lithium-ion battery manufacturing process via both dry and wet cell manufacturing

This project brings together novel process development and meal formulations to produce healthier, more sustainable, and palatable plant-based meals that fulfil the criteria for “nyckelhålet” and comply with EU low sodium claim level. 

3D-Action is a project with the goal to be a catalyst that increases awareness and knowledge about additive manufacturing and its benefits for small and medium-sized companies in Västra Götaland region.