Driving the circular economy


ChemistryCan influence our future / ChemistryCan deliver

ChemistryCan Driving the Circular Economy

From the ‘take, make, dispose’ model to ‘make, use, return’. A circular economy aims to maintain the value of products, materials and resources in the economy for as long as possible, and to minimise the generation of waste.

Chemistry is central to the ideal of the circular economy. Whether one’s talking about paper, battery or plastics recycling, the process is fundamentally chemical.

The 20th Century mandated recycling for wastes that were filling up landfills and polluting the landscape. In the 21st century we are working on technologies to extract and recycle carbon from CO2 emissions or design products that will never go to waste.

Have a look at how the chemical industry makes a circular economy possible

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Inspired by nature: replicating photosynthesis to produce chemicals

Circular Carbon,Climate Neutrality,Bioeconomy,Circular Economy,Climate Change & Energy,EU Green Deal - Energy Intensive Industries


Circular Water Use at the Port of Antwerp: The CHERISH2O Project

Resource Efficiency,Water Efficiency,Water Management,Circular Economy,Research & Innovation,Sustainability - Chemicals


Transforming Rice Cultivation in the Face of Water Scarcity

Water Efficiency,Water Management,Sustainability - Agri-Food


Switching from drinking water to industrial water from Salt Production

Resource Efficiency,Water Management,Circular Economy,Sustainability - Chemicals


How Biomass-Balanced Polymers are Boosting Sustainability in Water-Intensive Industries

Water Management,Bioeconomy,Research & Innovation,Sustainability - Chemicals


Leading Industrial Water Reuse in Southern Spain

Resource Efficiency,Water Management,Circular Economy,Sustainability - Chemicals


Optimizing Phosphorus Removal: A Smart Solution for Cost and Water Efficiency

Resource Efficiency,Water Management,Digitalisation,Sustainability - Water


Reducing Water Use in Concrete Production

Water Efficiency,Research & Innovation,Sustainability - Construction


Innovative Salt Recycling: Reducing Water Waste and Preserving Resources in Chemical Production

Resource Efficiency,Circular Economy,Sustainability - Chemicals


Optimizing Wastewater Treatment Through Digital Innovation

Water Management,Digitalisation,Research & Innovation,Sustainability - Water


Innovative Solutions for Water Scarcity: Seawater Desalination in Southeast Spain

Climate Change & Energy,Research & Innovation,Sustainability - Water


Reducing Water Waste, Revolutionizing Brewing

Water Efficiency,Water Management,Circular Economy,Sustainability - Agri-Food


Leveraging Wastewater for Cooling: Reducing Freshwater Use in the Chemical Industry

Resource Efficiency,Water Efficiency,Water Management,Circular Economy,Sustainability - Chemicals


Turning Municipal Wastewater into a Resource: How Innovation is Tackling Water Scarcity Across Europe

Resource Efficiency,Water Management,Circular Economy,Sustainability - Chemicals


End-of-life textiles: From trash to treasure

Circular Economy,Sustainability - Textiles


Turning emissions from the steel industry into new products

Climate Neutrality,Circular Economy,EU Green Deal - Energy Intensive Industries


Can trousers be made from recycled tyres?

Circular Economy,Research & Innovation,Plastics,Sustainability - Mobility, transport & automotive,Textiles


A “parasol” from recycled plastics to protect pineapples from sunburn

Climate Neutrality,Circular Economy,Research & Innovation,Plastics,Sustainability - Plastics


Converting climate damaging emissions into raw material

Circular Economy,Climate Change & Energy,Climate Strategy,EU Green Deal,Research & Innovation - Energy Intensive Industries


Creating fully recyclable carpets and mattresses

Safe and sustainable by design,Circular Economy,EU Green Deal,Research & Innovation,Sustainability - Textiles


Industrial symbiosis helps cut carbon emissions and reduce waste

Climate Change & Energy,Climate Strategy,EU Green Deal,Sustainability - Energy Intensive Industries


Sustainable plastics for the optics industry

Climate Neutrality,Bioeconomy,Plastics,Sustainability - Retail,Plastics


Wrapping up: Industrial packaging put to new use

Circular Economy,Plastics,Sustainability - Energy Intensive Industries,Retail,Plastics


Replacing fossil fuels with hydrogen: Fuse, Reuse, Recycle

Climate Neutrality,Circular Economy,EU Green Deal,Hydrogen,Sustainability - Energy Intensive Industries


Making cotton dyeing more sustainable with one pretreatment solution

Safe and sustainable by design,Climate Change & Energy,EU Green Deal,Research & Innovation,Sustainability - Textiles


Electric car components made with safe, tough, and light materials

Climate Neutrality,Circular Economy,Sustainability - Mobility, transport & automotive


Using an existing gas pipeline to transport hydrogen

Climate Neutrality,Circular Economy,Climate Change & Energy,EU Green Deal,Hydrogen - Energy Intensive Industries


Closing the loop: recycling battery cases

Circular Economy,Climate Change & Energy,EU Green Deal - Mobility, transport & automotive


Reducing dependence on natural resources

Bioeconomy,Circular Economy,Climate Strategy,EU Green Deal,Research & Innovation - Energy Intensive Industries


Solvents – a key ingredient of energy efficient and sustainable materials

Circular Economy,EU Green Deal,Sustainability - Digital,Construction


Lignin: a promising renewable resource for bio-based products

Climate Neutrality,Chemical Recycling,Circular Economy,Climate Change & Energy - Energy Intensive Industries,Plastics,Construction


Using agricultural residues for low carbon bio-based products

Climate Neutrality,Bioeconomy,Circular Economy,Climate Change & Energy,Sustainability - Energy Intensive Industries,Agri-Food,Retail


The magic combination of fuel cell technology and catalysts

Climate Neutrality,Climate Change & Energy,EU Green Deal,Hydrogen - Energy Intensive Industries


New polyurethane rotor blade helps wind turbines last longer

Climate Change & Energy,Climate Strategy,EU Green Deal,Research & Innovation,Sustainability - Renewable Energy


Sometimes more is more: Improving the quality of recycled plastics using additives

Climate Neutrality,Circular Economy,Climate Change & Energy,Plastics,Sustainability - Plastics


Improving plastics recyclability by using the same lid for every pot

Circular Economy,Plastics,Sustainability - Agri-Food,Plastics


Sustainability in textiles starts with the fibre

Climate Neutrality,Safe and sustainable by design,Circular Economy,Climate Change & Energy,Sustainability - Textiles,Retail


Reconstructing concrete

Climate Neutrality,Circular Economy,Sustainability - Construction


How by-products of the paper industry can be a resource for the chemical industry

Climate Neutrality,Bioeconomy,Circular Economy,Climate Change & Energy,Sustainability - Energy Intensive Industries


Bio-based plastics: a huge potential for polymer manufacturers in combating climate change

Climate Neutrality,Bioeconomy,Circular Economy,Climate Change & Energy,Sustainability - Energy Intensive Industries,Plastics


Compostable bio-based plastics could disintegrate faster than orange peels and paper

Climate Neutrality,Bioeconomy,Circular Economy,Climate Change & Energy,Sustainability - Energy Intensive Industries,Plastics


Combine renewable energy with bio-based raw materials and get climate neutral polycarbonate

Climate Neutrality,Bioeconomy,Circular Economy,Climate Change & Energy,Sustainability - Energy Intensive Industries,Renewable Energy,Plastics


Biodegradable materials made from renewable resources

Climate Neutrality,Bioeconomy,Circular Economy,Climate Change & Energy,Sustainability - Energy Intensive Industries,Renewable Energy


Using one log of wood for multiple purposes

Climate Neutrality,Bioeconomy,Circular Economy,Climate Change & Energy,Sustainability - Energy Intensive Industries,Construction


A second life for your plastic waste

Circular Economy,Plastics,Sustainability - Energy Intensive Industries,Plastics


Tracking chemicals along the value chain to ensure recyclability

Safe and sustainable by design,Circular Economy,Digitalisation,EU Green Deal,Sustainability - Textiles,Digital


3-in-1: Tackling obesity while re-using waste sustainably

Safe and sustainable by design,Health & Safety,Bioeconomy,Circular Economy,Sustainability - Agri-Food


From fast fashion to durable dress

Climate Neutrality,Safe and sustainable by design,Bioeconomy,Circular Economy,Sustainability - Textiles


From used to recycled electric vehicle battery metals in one loop

Circular Economy,EU Green Deal - Mobility, transport & automotive


Circular Steam Project

Climate Neutrality,Circular Economy,Climate Change & Energy,EU Green Deal - Energy Intensive Industries


Creating a digital thread to trace plastics in the automotive sector

Digitalisation,Plastics,Sustainability - Mobility, transport & automotive,Digital,Plastics


Using a catalyst to transform CO2 into valuable chemicals

Circular Carbon,Climate Neutrality,Circular Economy,Climate Change & Energy,EU Green Deal,Hydrogen - Mobility, transport & automotive,Energy Intensive Industries


Re-using greenhouse gasses to produce low carbon fuels

Circular Carbon,Climate Neutrality,Circular Economy,Climate Change & Energy,Hydrogen - Energy Intensive Industries


Upscaling electrocatalysis to repurpose CO2 as raw material

Climate Neutrality,Circular Economy,Climate Change & Energy,EU Green Deal - Energy Intensive Industries


Bionaphtha and recycled oil for a new sustainable certified product range

Bioeconomy,Chemical Recycling,Circular Economy,EU Green Deal,Research & Innovation,Sustainability - Energy Intensive Industries,Plastics


Clever use of polyurethane foam from the start

Safe and sustainable by design,Circular Economy,EU Green Deal,Research & Innovation,Sustainability - Mobility, transport & automotive,Construction


Value chains join forces to close the loop on recycling batteries

Circular Economy,Climate Change & Energy,EU Green Deal - Mobility, transport & automotive


Giving new life to old mattresses

Chemical Recycling,Circular Economy,EU Green Deal,Sustainability - Textiles


Designing sustainable packaging by increasing the use of renewable raw material

Bioeconomy,Circular Economy,EU Green Deal,Sustainability - Energy Intensive Industries,Plastics


Recycling more plastics: PET packaging

Circular Economy,EU Green Deal,Research & Innovation - Energy Intensive Industries,Plastics


Turning foam waste into safe new raw materials

Circular Economy,EU Green Deal,Research & Innovation - Construction


Transforming household waste into raw material for chemicals

Circular Economy,EU Green Deal,Research & Innovation,Sustainability - Energy Intensive Industries


Waste discharge can create valuable by-products

Circular Economy,EU Green Deal,Sustainability - Energy Intensive Industries


Creating “green” composites with innovative resins

Circular Economy,Climate Strategy,EU Green Deal,Sustainability - Aerospace and Defence


One key substance can help renew old things

Circular Economy,EU Green Deal,Sustainability - Creative & Cultural Industries,Electronics


Coated textiles: comfortable to wear, sustainable to make

Circular Economy,EU Green Deal,Sustainability - Textiles


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