Hydrogen and hydrogen peroxide, from water, on site.
One modular cavitation unit makes two products. The peroxide carries the economics, so the hydrogen does not have to. We don't claim cheap energy. We claim a better business case.
1.4 kWh/kg H₂ is pump electrical input only, not a full energy balance. Peroxide ratio is fixed by stoichiometry. Yields to be measured on the pilot.
Collapsing bubbles break water apart.
Hydrodynamic cavitation creates millions of micro-bubbles. When they collapse, local pressure and temperature spike for microseconds, enough to split water molecules. The chemistry is documented in peer-reviewed sonochemistry literature. Our contribution is the reactor, refined over 23 years.
Pump water through the rotor
Water flows at 1,800 L/h through a cavitation rotor driven by a 7 kW pump.
Bubbles form and collapse
Controlled cavitation concentrates energy into tiny zones where water bonds break.
Collect two products
A proprietary reactor geometry and an electric field separate hydrogen gas from peroxide in solution.
The co-product is the business.
Single-product hydrogen lives or dies on energy cost. EIREX doesn't. Hydrogen peroxide is a high-volume industrial chemical used in pulp and paper, mining, water treatment and electronics. Made on site, it removes shipping and storage of a hazardous chemical.
Per 1 kg of H₂ produced
Illustrative · pending measured yieldFull-system energy figure assumed for illustration. Pump input alone is 1.4 kWh/kg. Actual figures depend on measured peroxide yield, concentration and local prices.
What we've shown, what we expect, what we'll measure.
Hydrogen has seen too many big promises. We sort every claim into one of three columns, and nothing moves left until the data moves it.
Demonstrated
- 23+ years of cavitation research
- Four working prototypes built and run
- Cavitation processing of ores, heavy oil and plastics
Predicted
- >5 kg H₂/h from one pilot unit
- 1.4 kWh/kg H₂ pump electrical input
- ~17 kg H₂O₂ per kg H₂ (stoichiometry)
To be measured
- Peroxide yield and concentration
- Full-system energy balance, incl. separation
- Continuous-run durability of the rotor
Nine months to measured data.
Funding is released against milestones. Each stage ends with a result partners can check.
Design
Final pilot engineering and part specs.
Build
Fabricate rotor, pump skid and separation.
Integrate
Assemble, instrument and commission.
Validate
Measured H₂, H₂O₂ and energy data, third-party witnessed.
Straight from the shop floor.
Short, dated updates as the pilot gets built. Photos, parts, test runs, setbacks too.
First updates from the pilot build are coming soon.
The same rotor, other hard problems.
Rotor Disintegrator
Cavitation processing for ores and heavy hydrocarbons, including viscosity reduction.
Plastic recycling
A cavitation process that turns plastic waste into a synthetic oil similar to sweet crude.
Two decades on one physics problem.
Engineers and a hydrodynamicist with 40+ years each in industry and research. Four prototypes built, two US patents granted, a hydrogen patent filing in progress.
Co-Founder & Vice President
Co-Founder & Director
Chief Scientist, 120+ publications
Use peroxide? Need hydrogen? Let's talk.
We're selecting pilot partners and milestone-based investors. Tell us who you are and the founder gets your message directly.
Request the investor pack
Deck, pilot plan and use of funds. Technical details follow under NDA. Pick "Investor" in the form.