Technology-based projects require purpose-built infrastructure and process engineering - STPs, ETPs, in-situ mineralisation and alternative-fuel co-processing.
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Every capability below runs through SYNE Carbon's seeker-provider network - 12 technology-based pathways.
Mechanically captures CO2 directly from ambient air for storage or utilisation - Direct Air Capture.
Combines biomass energy generation with captured and stored CO2, delivering net-negative emissions.
Captures CO2 from industrial point sources for storage or productive use - Carbon Capture, Utilisation and Storage.
Applies crushed silicate rock to accelerate natural mineral weathering and remove atmospheric CO2.
Injects CO2 into suitable rock formations, converting it into stable mineral form underground.
Uses industrial waste streams such as slag or tailings as a substrate for accelerated CO2 mineralisation.
Stores captured CO2 in deep geological formations for long-term containment.
Converts biomass into bio-oil and injects it into geological storage, locking away biogenic carbon.
Converts captured CO2 into durable synthetic materials, storing carbon in a usable product.
Injects captured CO2 into concrete during curing, mineralising it permanently within the building material.
Increases ocean alkalinity to boost the ocean's natural capacity to absorb and store atmospheric CO2.
Uses electrochemical processes to extract CO2 from seawater, enabling the ocean to absorb more from the atmosphere.
Mechanically captures CO2 directly from ambient air for storage or utilisation - Direct Air Capture.
Purpose-built machinery draws in ambient air and chemically strips out the CO2 it contains.
Removal is direct and precisely measurable - it doesn't depend on land, weather or growing season.
Delivers a permanent, engineered removal credit with no reversal risk from fire or land-use change.
Combines biomass energy generation with captured and stored CO2, delivering net-negative emissions.
Biomass is burned for energy, and the resulting CO2 is captured before it reaches the atmosphere.
Net-negative, since the biomass already absorbed CO2 while growing and the combustion emissions are then captured too.
Generates usable energy and a carbon removal credit from the same process.
Captures CO2 from industrial point sources for storage or productive use - Carbon Capture, Utilisation and Storage.
CO2 is captured directly at an industrial emission source before it's released.
Prevents a specific, measurable volume of industrial emissions from reaching the atmosphere at all.
Lets hard-to-abate industrial processes keep operating while materially cutting their emissions footprint.
Applies crushed silicate rock to accelerate natural mineral weathering and remove atmospheric CO2.
Crushed silicate rock is spread across land, accelerating a mineral weathering process that already occurs in nature.
Each tonne of rock applied mineralises a calculable volume of atmospheric CO2 over time.
Delivers soil health improvements to the land it's applied to, alongside the carbon removal.
Injects CO2 into suitable rock formations, converting it into stable mineral form underground.
Captured CO2 is injected into suitable rock formations, where it reacts and converts into solid mineral form.
Mineralised CO2 is locked away permanently, with essentially no reversal risk once the reaction completes.
Provides a disposal pathway for captured CO2 that doesn't rely on long-term monitoring of a living system.
Uses industrial waste streams such as slag or tailings as a substrate for accelerated CO2 mineralisation.
Uses existing industrial waste such as mine tailings or slag as the reactive material for CO2 mineralisation.
The waste's existing reactivity makes mineralisation faster and cheaper to achieve than with fresh rock.
Turns an existing waste liability into a carbon removal asset, rather than requiring new feedstock.
Stores captured CO2 in deep geological formations for long-term containment.
Stores captured CO2 in deep geological formations engineered to contain it long-term.
Provides a high-volume storage pathway for CO2 captured from DAC, BECCS or CCUS projects.
Makes large-scale capture projects viable by giving them somewhere permanent to put the CO2.
Converts biomass into bio-oil and injects it into geological storage, locking away biogenic carbon.
Converts biomass into a stable bio-oil, which is then injected into geological storage.
Locks away the biogenic carbon the biomass absorbed while growing, before it can be released again.
Turns otherwise low-value biomass waste into a durable carbon storage pathway.
Converts captured CO2 into durable synthetic materials, storing carbon in a usable product.
Chemically converts captured CO2 into durable synthetic materials rather than storing it underground.
The carbon stays locked in the material for as long as the product itself exists.
Produces a saleable material alongside the carbon storage, offsetting some of the project's cost.
Injects captured CO2 into concrete during curing, mineralising it permanently within the building material.
Injects captured CO2 into concrete during the curing process instead of venting or storing it separately.
The CO2 mineralises permanently within the concrete itself as it cures.
Uses a material the construction industry already needs at scale, requiring no separate storage infrastructure.
Increases ocean alkalinity to boost the ocean's natural capacity to absorb and store atmospheric CO2.
Adds alkaline material to seawater, increasing the ocean's chemical capacity to absorb atmospheric CO2.
A more alkaline ocean draws down additional CO2 from the atmosphere to restore chemical equilibrium.
Taps the ocean's vast natural carbon sink capacity, at a scale land-based approaches can't match.
Uses electrochemical processes to extract CO2 from seawater, enabling the ocean to absorb more from the atmosphere.
Uses an electrochemical process to extract dissolved CO2 directly from seawater.
Directly measurable removal from the ocean-atmosphere system, verified at the point of extraction.
Offers a precisely engineered, land-independent removal pathway.
Technology-based approaches typically deliver faster, more precisely measurable outcomes, at a higher capital cost. They suit sites and sectors - cement, mining, industrial waste streams - where the physical process itself has to change, not just the land use around it.
Every pillar can be delivered nature-based, technology-based, or hybrid - explore each to see the specific projects available.
Implementation partners and technology providers working in technology-based approaches can join SYNE Carbon's partner network to get matched with seekers actively looking for proven delivery capability - vetted once, then visible to every relevant project.
Whether you're seeking a project or offering implementation capability, SYNE can manage the match end-to-end.