The ever-increasing levels of CO2 in the atmosphere are a pressing imperative for scientists and engineers to develop technologies capable of mitigating its harmful effects. Turning this waste CO2 into something useful for people and planet is our mission at Econic.
One of the key challenges scientists face is how to overcome the inherent stability of CO2, the property that leads to its long atmospheric lifetime and increasing global temperatures. Most often, large amounts of energy, in the form of heat or electricity, are needed to transform CO2 into other useful chemicals. At Econic, we develop catalyst technologies that significantly reduce the energy required for these reactions to occur allowing CO2 to be turned into polymers for use in creating everyday plastics.
Econic Catalyst Technology
Our catalyst technologies react CO2 with a group of chemicals called epoxides – traditional building blocks in the polymer industry – to make polymers that can contain up to 50% by weight of CO2. Econic’s first success was to build CO2 into a range of short-chain polymers called polyols, which are used predominantly in the polyurethane industry.
THE ECONIC VALUE CHAIN
Providers of innovative catalyst technologies that incorporate CO2 into polyols for use in the PU industry
Low pressure polymerisation
+ retrofit to existing assets
- ROI within two years.
Tunable CO2 content for bespoke performance characteristics.Discover more
Utilisation of harmful CO2 waste + reduced CO2 emissions.Discover more
Econic’s catalyst technologies allow polyols to be manufactured using bespoke amounts of CO2
Up to 50% waste CO2 used to replace fossil fuel-based feedstock.Discover more
Polyol viscosity tailored to match needs of downstream applications.Discover more
Creating value from waste CO2 + potential to reduce CO2 emissions.Discover more
Polyols manufactured using Econic's catalyst technologies offer the potential for enhanced PU products including:
Increased fire resistance
Decreased smoke/CO emissions
Maintains insulative properties
Reduced need for expensive non-bonded additives for same fire resistance
Maintains fire resistant properties with less fire resistant additives
Enhanced miscibility with blowing agents - lower density foams
Decreased MDI required
Insulation - building, industrial
Increased chemical resistance
Increased thermal shock resistance
Decreased drying time
Potential to remove additives
No need to blend with other polyols
Corrosion protection - boats, bridges, buildings, etc.
TURNING WASTE CO2 INTO SOMETHING OF REAL POTENTIAL VALUE HAS BEEN ACHIEVED IN TWO MAJOR PHASES:
ALTERNATING CATALYST TECHNOLOGY
First, we developed our Alternating catalyst technology to enable customers to produce polyols with the maximum possible CO2 content. These polyols have excellent properties for some high-performance applications, but their higher viscosity than their traditional fossil fuel-based counterparts limits their use in other areas.
TUNABLE CATALYST TECHNOLOGY
Turning this limitation into another opportunity, we developed our Tunable catalyst technology, which enables customers to tailor the amount of CO2 incorporated into their polyols according to the performance requirements of a much wider range of applications.