Waste-to-energy
Capture CO₂ today. Create a route for the biogenic share.

Lower emissions. Create a route for biogenic carbon removal.
Waste-to-energy plants are under growing pressure to cut fossil CO₂ emissions and define a route for the biogenic share. Capture CO₂ from treated flue gas with a fully electrified membrane system engineered around your existing plant and the downstream route for the captured CO₂.
Waste-to-energy
Capture CO₂ today. Create a route for the biogenic share.

Lower emissions. Create a route for biogenic carbon removal.
Waste-to-energy plants are under growing pressure to cut fossil CO₂ emissions and define a route for the biogenic share. Capture CO₂ from treated flue gas with a fully electrified membrane system engineered around your existing plant and the downstream route for the captured CO₂.
Waste-to-energy
Capture CO₂ today. Create a route for the biogenic share.

Lower emissions. Create a route for biogenic carbon removal.
Waste-to-energy plants are under growing pressure to cut fossil CO₂ emissions and define a route for the biogenic share. Capture CO₂ from treated flue gas with a fully electrified membrane system engineered around your existing plant and the downstream route for the captured CO₂.
Benefits
Make more of the CO₂ your plant already produces
Waste-to-energy flue gas contains both fossil and biogenic CO₂. Capturing the fossil share reduces what is released, while permanently storing the biogenic share may create a route to carbon removal. The case depends on your waste feed, operating profile and downstream storage route.

Reduce fossil CO₂ emissions
Capture fossil CO₂ from treated flue gas before it leaves the stack.

Create a route for biogenic CO₂
If the biogenic CO₂ is permanently stored, it may qualify as carbon removal under the relevant scheme.

Lower the energy burden
Use a fully electrified, pressure-driven capture step without energy-intensive, thermal solvent regeneration in the core separation process.
Benefits
Make more of the CO₂ your plant already produces
Waste-to-energy flue gas contains both fossil and biogenic CO₂. Capturing the fossil share reduces what is released, while permanently storing the biogenic share may create a route to carbon removal. The case depends on your waste feed, operating profile and downstream storage route.

Reduce fossil CO₂ emissions
Capture fossil CO₂ from treated flue gas before it leaves the stack.

Create a route for biogenic CO₂
If the biogenic CO₂ is permanently stored, it may qualify as carbon removal under the relevant scheme.

Lower the energy burden
Use a fully electrified, pressure-driven capture step without energy-intensive, thermal solvent regeneration in the core separation process.
Benefits
Make more of the CO₂ your plant already produces
Waste-to-energy flue gas contains both fossil and biogenic CO₂. Capturing the fossil share reduces what is released, while permanently storing the biogenic share may create a route to carbon removal. The case depends on your waste feed, operating profile and downstream storage route.

Reduce fossil CO₂ emissions
Capture fossil CO₂ from treated flue gas before it leaves the stack.

Create a route for biogenic CO₂
If the biogenic CO₂ is permanently stored, it may qualify as carbon removal under the relevant scheme.

Lower the energy burden
Use a fully electrified, pressure-driven capture step without energy-intensive, thermal solvent regeneration in the core separation process.
Facing fossil CO₂ costs while your flue gas also contains a biogenic share?
That may be the capture case worth assessing.

>70%
energy savings compared with traditional CO₂ capture methods
Facing fossil CO₂ costs while your flue gas also contains a biogenic share?
That may be the capture case worth assessing.

>70%
energy savings compared with traditional CO₂ capture methods
Facing fossil CO₂ costs while your flue gas also contains a biogenic share?
That may be the capture case worth assessing.

>70%
energy savings compared with traditional CO₂ capture methods
End-to-end solution
Assess first. Validate on your stream. Then scale.
1
Establish feasibility
Review your CO₂ source, flue-gas composition, annual volume, operating profile, available information on the biogenic share and the downstream storage route. Together, we assess the capture opportunity, operating requirements and conditions for a viable project.


2
Validate with a pilot
Test on your own flue gas to establish relevant capture performance, energy demand and operating data. The findings help your team evaluate technical fit and commercial potential before scaling.

Directly installed on plant

3
Deploy & operate
Once the case is proven, configure the full system around your site, operating requirements and CO₂ route. Then integrate and bring it into operation.
End-to-end solution
Assess first. Validate on your stream. Then scale.
1
Establish feasibility
Review your CO₂ source, flue-gas composition, annual volume, operating profile, available information on the biogenic share and the downstream storage route. Together, we assess the capture opportunity, operating requirements and conditions for a viable project.


2
Validate with a pilot
Test on your own flue gas to establish relevant capture performance, energy demand and operating data. The findings help your team evaluate technical fit and commercial potential before scaling.

Directly installed on plant

3
Deploy & operate
Once the case is proven, configure the full system around your site, operating requirements and CO₂ route. Then integrate and bring it into operation.
End-to-end solution
Assess first. Validate on your stream. Then scale.
1
Establish feasibility
Review your CO₂ source, flue-gas composition, annual volume, operating profile, available information on the biogenic share and the downstream storage route. Together, we assess the capture opportunity, operating requirements and conditions for a viable project.


2
Validate with a pilot
Test on your own flue gas to establish relevant capture performance, energy demand and operating data. The findings help your team evaluate technical fit and commercial potential before scaling.

Directly installed on plant

3
Deploy & operate
Once the case is proven, configure the full system around your site, operating requirements and CO₂ route. Then integrate and bring it into operation.
FAQ
Questions about CO₂ capture at waste-to-energy plants
FAQ
Questions about CO₂ capture at waste-to-energy plants
FAQ
Questions about CO₂ capture at waste-to-energy plants
Tell us what you’re trying to improve. We’ll explore what’s possible.
Share the separation challenge you’re dealing with today. We’ll help assess where molecular sieving could improve recovery, capacity, efficiency or emissions and what that could mean for your process.
Tell us what you’re trying to improve. We’ll explore what’s possible.
Share the separation challenge you’re dealing with today. We’ll help assess where molecular sieving could improve recovery, capacity, efficiency or emissions and what that could mean for your process.
Tell us what you’re trying to improve. We’ll explore what’s possible.
Share the separation challenge you’re dealing with today. We’ll help assess where molecular sieving could improve recovery, capacity, efficiency or emissions and what that could mean for your process.