Your Plasma Reformer Integration Partner

Unlock cleaner energy with plasma reformers that convert waste gases and primary fuels into syngas (H2 + CO), slashing emissions like HC, CO, PM, and NOx while boosting ROI for industrial systems.

Power Your Future

Plasma reformers integrate seamlessly into stationary power, fuel cells, and Fischer-Tropsch processes, enabling modular fuel production anywhere—meeting even the toughest regulations affordably.

End Waste, Start Winning

  • Transform landfill methane, ag waste, and flared wellhead gas into compliant electricity or liquids, capturing billions in lost value.
  • Surpass Paris Agreement goals, CARB standards, and flaring bans with versatile tech for every engine.

Proven Leadership

Daniel Wells, ex-Umpqua Energy CEO and DOE "America's Next Top Energy Innovator" awardee, leads our mission to embed plasma solutions in your operations.

Partner With Us


For Data Centers

Data centers are deploying vast arrays of natural gas-powered gensets—such as fleets delivering gigawatts of prime and backup power—to bypass grid bottlenecks and fuel AI growth. Plasma reformers integrate seamlessly, converting methane-rich feeds (from flares or pipelines) into syngas for ultra-clean combustion, slashing emissions and unlocking energy from natural gas. Build one large plasma reformer for your entire data center or build for each of your gensets, the choice is up to you.

Syngas Injected Into Natural Gas Gensets Reduces Emissions

Syngas blended with natural gas in combustion engines reduces emissions by enhancing flame speed and promoting more complete fuel oxidation, primarily due to its hydrogen content.

Combustion Dynamics

The high reactivity of syngas (H₂ and CO) accelerates laminar flame speeds in natural gas mixtures, minimizing unburned HC formation under lean or stoichiometric conditions in spark-ignition engines. Studies confirm linear HC reductions with increasing syngas ratios, as H₂ boosts OH radical concentrations for better oxidation.

Testing Outcome

Live testing on a diesel pickup truck and a natural gas genset using a gas analyzer and a dyno.

Aspect Plasma Reformers
HC Reduction up to 95%
CO Reduction up to 98%
PM Visible (nearly complete) reduction in smoke on a diesel truck
NOx Slight increase due to temps, mitigate with SCR or DeNOx Catalyst
HP Increase up to 12% based on engine load per dyno on a diesel truck

Plasma Reformers vs Hydrogen Blending

Plasma Reformers and hydrogen blending serve distinct purposes in enhancing natural gas engine performance for data centers, though both aim to cut emissions like HC, CO, PM and NOx.

Core Mechanisms

Plasma Reformers use plasma technology to convert natural gas into syngas (H2 + CO) on-demand within the fuel system, injecting this hydrogen-rich mix directly into engines for cleaner, more efficient combustion. Hydrogen blending, by contrast, mixes pre-produced pure hydrogen (typically 5-20% by volume) into natural gas pipelines or fuel streams upstream. Plasma Reformers offer independence from hydrogen supply chains, ideal for remote or high-reliability data center generators amid grid constraints. Hydrogen blending suits larger pipeline-fed setups but faces regulatory hurdles on H2 injection limits (e.g., 20% max in some regions).

Key Differences

Aspect Plasma Reformers Hydrogen Blending
Hydrogen Source On-site reforming of ng or methane via plasma External supply (e.g., electrolysis)
Infrastructure Compact reformer unit per engine/site Pipeline modifications, storage tanks
Emissions Impact Reduces HC/CO via syngas; no H2 transport Lowers NOx/HC; risks methane slip
Scalability Modular for data centers, no grid tie Network-dependent, blending limits
Cost Higher upfront for plasma tech Sourcing challenges + high cost electrolyzers
Tuning & ROI Optimize for engine load & HP gains General % range

Integrate Plasma Reformers

Stationary Power System

Power Systems

Power systems are subject to increasingly stringent regulations regarding allowable emissions, and current emissions controls are expensive to implement. Plasma reformers are proven to reduce several emissions in a single application (especially HC, CO and PM).

Hydrogen Fuel Cell

Fuel Cells

Purity of input fuel for fuel cells is key and your feedstock can be cleaned into syngas by using a plasma reformer. Fuel cells can be limited depending on the available fuels in the application of the technology. A plasma reformer is perfect for fuel cells as it cleans input fuels into pure syngas before entering the fuel cell.

Fischer-Tropsch

Fischer-Tropsch

Fischer-Tropsch converts syngas into liquid fuels and was invented in Germany in 1925 and has constantly seen improvement since the first uses in that day. While gasification units typically power the systems today, plasma reformers are a great fit towards a more modular and possibly even semi-mobile state to produce fuel where and when needed.

Sources of Waste Fuels

Municipal Solid Waste

MSW Landfill Gas

An increasing number of landfills now capture the methane gasses that are generated by the decomposing waste they receive. Disposal of this methane has been easy in situations where industry is nearby, as the gasses can be piped and sold to a neighboring facility. Remote landfills without the same opportunities often install stationary power systems to generate electricity, or simply flare the methane to burn it off as a waste product. In either case, plasma reformers can help.


Learn More

Wellhead Flare Gas

Flaring Mitigation

Plasma reformers are likely the answer to the practice of flaring natural gas at drilling operations. Remote wellheads, without access to pipeline infrastructure, view well associated natural gas as an economically non-viable product, and flare it off as waste. On site power generation utilizing this resource has presented several challenges, including the emissions resulting from combustion of well associated gasses.


Learn More

Agricultural Waste

Cow Power

Agricultural waste (unused plant material & animal excrement) and organic human waste, can be placed in a digester, resulting in methane gasses which are captured and supplied to stationary power systems. As with any stationary power system, securing the permits to allow it produce power can be a challenge due to the emissions generated. Plasma reformers can also be used to exceed emission standards to gain project compliance.


Learn More

Plasma Reformers Surpass Government Mandates

Plasma Reformers are poised to achieve the highest standards that regulators can enforce. The technology is so versatile that it is relevant to every combustion engine, fuel cell and Gas-to-Liquids technologies. There are boundless amounts of wasted fuels that can be converted to useable energy because of plasma reformers. As regulators raise the bar, industry will rely on plasma reformers to solve new challenges.

  • The Paris Agreement sets out a global action plan to limit global warming.
  • CARB has focused on NOx and continues to set new standards and deadlines for compliance.
  • The State of North Dakota has set a deadline of 2020 to eliminate all wellhead flaring in the jurisdiction of their State.
  • The European Environment Agency has set National Emission Ceilings.
  • The International Maritime Organization sets standards that apply to ships while operating in Emission Control Areas (ECA) established to limit NOx emissions.
  • While many governments defer to CARB, each one is in it's right to set their own standards.

About Daniel Wells

Daniel Wells (ex-CEO of Umpqua Energy) received International recognition after being awarded the "America's Next Top Energy Innovator" Award from the Department of Energy and by winning the CTSI Defense Energy Technology 2012 Challenge by developing an energy positive emission control system including HC, CO, PM and NOx reduction by using a plasma reformer.



Keynote Address Partner With Us

Copyright Daniel Wells 2019-2026