Hydrogen / Low Carbon Hydrogen

Low-Carbon Hydrogen from Natural Gas, LNG & LPG

Hydrogen produced by splitting natural gas, LNG or LPG in a plasma reactor — no CO₂ released in the process, with solid carbon recovered as a marketable second product.

Natural GasLPGLNG
10.7 kWh/kg H₂Energy demand
98%Methane conversion
3Process variants
Solid CarbonValuable co-product
20 MWScalable plant
50 kg/hHydrogen output

Low Carbon Hydrogen Ecosystem

From Natural Gas to Industrial Hydrogen

Instead of relying on conventional electrolysis, Graforce uses methane plasma technology to produce hydrogen with significantly lower energy demand while generating valuable synthetic carbon and recoverable process heat.

Methane Plasmalyzer®

Meet the Methane Plasmalyzer®

The Methane Plasmalyzer® is Graforce's proprietary methane plasmalysis reactor that splits methane molecules into hydrogen and solid carbon using a high-voltage plasma field instead of combustion. Because hydrogen is less tightly bound in methane than in water, significantly less electrical energy is required compared with conventional electrolysis.

High-voltage plasma technology
Continuous industrial operation
Modular containerized design
No combustion process
Zero process CO₂ emissions
Valuable carbon co-product
Methane Plasmalyzer container unit
Inside the Methane Plasmalyzer reactor

Inside the Plasma Reactor

Inside the Methane Plasmalyzer®

Inside the reactor, renewable electricity generates a high-voltage plasma field capable of dissociating methane molecules without combustion. The process creates hydrogen gas, recoverable process heat, and high-purity solid carbon.

High-Voltage Plasma

A controlled plasma field provides the energy required to separate methane into hydrogen and carbon.

Electrode Cassette

The reactor contains an electrode cassette designed for continuous industrial operation and stable plasma generation.

Methane Dissociation

Methane molecules are split directly into molecular hydrogen and solid carbon without producing carbon dioxide.

Continuous Operation

The reactor is engineered for uninterrupted industrial hydrogen production with consistent plasma performance.

Advance Plasma Technologies

Plasma Technologies Developed by Graforce

Graforce develops multiple plasma technologies for different industrial feedstocks and applications. Each plasma type is optimized for specific chemical conversion processes.

DC Plasma

Natural Gas

DC Plasma

Designed for methane plasmalysis and industrial hydrogen production from natural gas.

DBD Plasma

Ammonia

DBD Plasma

Optimized for hydrogen production from ammonia and other specialized industrial processes.

RF Plasma

Industrial Effluent

RF Plasma

Used for industrial wastewater and effluent treatment applications.

Modular Plant Architecture

Built for Industrial Scale

The Methane Plasmalyzer® is designed as a modular technology platform. Individual reactor modules can be combined to create hydrogen plants ranging from pilot installations to full-scale industrial production facilities

0.5 MW module
0.5 MW MODULE
Containerized unit
CONTAINERIZED UNIT
5 MW plant
5 MW PLANT
20 MW industrial plant
20 MW INDUSTRIAL PLANT

Industries

Built for energy-intensive industry

From flare gas to steelmaking, the same reactor technology adapts to whatever feedstock and offtake an industry runs on.

Steel

Chemicals

Refineries

Heavy Transport

Power & Energy

Industrial Heat

Compatible Feedstocks

Flexible Feedstock Compatibility

The Methane Plasmalyzer® processes multiple methane-based feedstocks without requiring major infrastructure changes.

Natural Gas

Widely available industrial feedstock suitable for large-scale hydrogen production.

Biomethane

Renewable methane produced from organic waste and agricultural residues.

LNG

Liquefied natural gas for industrial facilities requiring high energy density.

LPG

Liquefied petroleum gas for distributed hydrogen production applications.

FAQ

Frequently asked questions

What is low-carbon hydrogen?+

Graforce engineers can help you evaluate the right pathway, system configuration and integration approach for your project.

Why methane instead of water?+

Graforce engineers can help you evaluate the right pathway, system configuration and integration approach for your project.

What happens to carbon?+

Graforce engineers can help you evaluate the right pathway, system configuration and integration approach for your project.

How much energy does it consume?+

Graforce engineers can help you evaluate the right pathway, system configuration and integration approach for your project.

How scalable is the technology?+

Graforce engineers can help you evaluate the right pathway, system configuration and integration approach for your project.

Ready to Build a Low-Carbon Hydrogen Plant?

Whether you're planning a pilot installation or a full-scale industrial deployment, Graforce's engineering team can help you evaluate the right hydrogen solution for your facility.

Contact Engineers →Compare with Green Hydrogen