WASTE TO SYNGAS
Decomposition without combustion
From Feedstock to Plant
A systematic process from feasibility through deployment — engineered around your specific requirements.
Feedstock & Plasma-Chemistry Analysis
We characterise the material — composition, calorific value, moisture, halogen and metal content — and determine the plasma route that suits it.
Representative samples, throughput target, disposal or offtake goal
Feasibility assessment, proposed process route, indicative mass and energy balance
Simulation & Reactor Design
The discharge, the field distribution and the reactor internals are modelled before anything is cut. Our simulation team works with university plasma laboratories on the hard cases.
Site constraints, utilities available, permitting context
Field and thermal simulation, reactor geometry, torch specification
Prototype & Trial Campaign
A prototype is built and run on your actual feedstock. Data monitoring through the campaign is what turns a design into a validated process recipe.
Feedstock volume for the campaign, acceptance criteria
Prototype unit, trial data, treated residues, validated operating window
Industrial Sample & Deployment
Scale to an industrial unit, integrated with feed handling, gas cleanup and offtake — commissioned, documented and supported.
Installation footprint, power and steam supply, operating schedule
Industrial system, operator training, maintenance plan, ongoing support
Technical Advantages
What changes when the disposal cycle has no combustion step in it.
No Combustion Step
Decomposition is carried out in an oxygen-free environment saturated with hydrogen and oxygen ions. Without an oxidation cycle there is no pathway to dioxins, furans or NOₓ.
Steam as the Plasma Medium
Water vapour is cheap, abundant and non-explosive, and it is an active reagent rather than only a coolant. Because it introduces no nitrogen, no nitrogen oxides can form.
99–99.5% Carbon Conversion
A second ionisation stage — the plasma filter — completes the destruction of anything that survives the reactor. This is what makes zero emission to the environment achievable.
Indifferent to Feedstock
Municipal and medical waste, refinery sludge, scrap tyres, biomass, heavy oils and tar are all handled by the same process line, reconfigured rather than redesigned.
Slag, Not Hazardous Ash
The inorganic fraction leaves vitrified and inert, usable as a construction material, instead of as an ash that must itself be disposed of as hazardous waste.
No Cost Premium
The technology does not raise the capital cost of waste-disposal equipment relative to the alternatives, while removing the emissions abatement they require.
P&ID / Process line
The line, end to end
From feed preparation to synthesis gas and vitrified slag. Select any unit to read its operating envelope — every figure shown is stated on the technology pages.
Physics-Based Process Control
Understand and control plasma behavior through electromagnetic field engineering, parameter tuning, and reactive chemistry.
Field Configuration
Microwave power is coupled into the reactor cavity, creating standing or traveling wave patterns described by Maxwell's curl equations. Boundary conditions and power level control the field distribution that drives plasma generation.
Engineering Specifications
Designed and validated for industrial environments. Every parameter is measured, controlled, and reproducible.
Power Monitor
LiveFrequency Spectrum
2.45 GHzIndustrial Applications
The same process line, configured for what you actually have to process.
Discuss Your Process
with Our Engineers
We evaluate feasibility, process windows, and scaling options for your specific materials and throughput requirements.