The same core technology captures CO₂ from any hot, CO₂-rich exhaust stream. Pick the market that matches your site to see how it fits.
GIGARIG captures CO₂ from incineration flue gas at £20-30/t, running on heat your plant already produces. Modules sit alongside the line and connect to the existing stack; installation takes weeks once your module ships.
It is possible to start with partial capture and add modules as your carbon exposure grows, whatever form it takes in your market. No chemicals, no water treatment, no specialist staff to hire. The biogenic fraction, captured and stored, counts as removal where certification recognises it.
Full-scale prototype in build now, field trials from Q4 2026.
Results early 2027GIGARIG captures CO₂ from biomass CHP flue gas at £20-30/t on the plant's own waste heat, leaving headroom under the value of a stored biogenic tonne for compression, transport and storage.
Captured and stored, biogenic CO₂ is removal-eligible where a storage route and certification exist. Start with one module to prove the chain, then scale in single-module steps to match the plant. No chemicals, no water, no specialist staff, and installation takes weeks once your module ships.
Full-scale prototype in build now, field trials from Q4 2026.
Results early 2027GIGARIG runs on gas-turbine exhaust heat with a dry solid sorbent, at atmospheric pressure throughout: no solvent inventory, no chemical resupply, no water treatment, and mechanical only maintenance a platform crew already handles.
The module is a self contained containerised skid, and the same unit works on platform supply and support vessels, capturing on the engines you already run with no fuel conversion. Where power-from-shore isn't practical, this is capture that lives on the installation itself and can be added a module at a time.
Full-scale prototype in build now, field trials from Q4 2026.
Results early 2027On behind the meter gas, GIGARIG captures on the turbine's own exhaust heat, so the parasitic load on your customer's power stays low. And it gives water back rather than consuming it, condensing the exhaust's own vapour into cooling make-up.
Modules are factory built, truck delivered and incrementally scaled, the same deployment model as the generation itself, sited alongside the turbine skids. Start with partial capture and add modules as commitments tighten over the life of the contract.
Full-scale prototype in build now, field trials from Q4 2026.
Results early 2027Onboard, GIGARIG captures on the engines and fuel you already run, using waste heat they already produce. Dry, chemical free and atmospheric throughout: no solvent supply chain to manage from port, no liquids to misbehave in a seaway, and mechanical only maintenance an engine room crew can own.
Captured CO₂ is liquefied and stored onboard, ready for discharge in port. As carbon levies on shipping spread and rise, every tonne captured is a tonne less to worry about.
Full-scale prototype in build now, field trials from Q4 2026.
Results early 2027At a refinery, GIGARIG can be deployed at individual heater stacks rather than as one central plant: no site-wide ductwork, no solvent in your process environment, no added water treatment. Each installation runs on its heater's own waste heat, in a skid format your operations team are already familiar with.
Roll out heater by heater during normal turnaround windows, starting wherever your carbon numbers say to start; no site shutdown and no all-or-nothing capex decision. If a unit is later reconfigured or decommissioned, the modules relocate with it.
Full-scale prototype in build now, field trials from Q4 2026.
Results early 2027GIGARIG is a modular carbon capture system. It captures CO₂ from flue gas or exhaust using temperature-swing adsorption on a ceramic sorbent, regenerated by waste heat from the host process.
Each capture module is a containerised 40 ft unit, factory built and shipped on a standard flatbed, with site matched heat recovery and conditioning skids alongside. No chemicals, no solvents, no water consumption for capture. No pressure vessels; atmospheric pressure throughout. The sorbent is an inert ceramic with a replacement cycle of several years. Modules install in weeks and run unattended.
The system operates across a wide range of CO₂ concentrations and integrates with any process that produces waste heat above ~300 °C. One module, a small cluster, or a large array; capture capacity scales in single-module increments to match the application.
GIGARIG is being developed for deployment across waste-to-energy, biomass, oil & gas, data-centre power, shipping and refining. The same core technology applies to any source of CO₂ in flue gas with available waste heat. If your process has a hot exhaust stream containing CO₂, we’d like to hear from you.
All performance figures are indicative and pre-trial. The full-scale prototype is in build now, field trials from Q4 2026, results early 2027.