Conversion offers significant cost, time, and strategic benefits:

• Lower CAPEX: Utilizes existing land, grid interconnect, electrical switchyards, and water access.

• Faster Deployment: Avoids years of new permitting and greenfield construction.

• Community & Workforce: Preserves local jobs and maintains the plant's economic role in the community during the energy transition.

• Grid Stability: Maintains the site's crucial role in providing stable, dispatchable power to the grid.

Our MeV technology is a non-electrolysis, low-energy process. Unlike electrolysis, which uses electrical current to split water at high temperatures and pressures (requiring ~50 kWh/kg H₂), MeV uses a controlled photon reaction in water at room temperature and near-atmospheric pressure. It claims to achieve dissociation with far less energy input (~1-2 kWh/kg H₂), directly targets and breaks down pollutants in source water, and produces hydrogen without generating heat or high pressure, enhancing safety and reducing system complexity.

Yes, this is a key advantage. The MeV process is promoted not just for hydrogen production but for simultaneous water renewal. It is designed to break down complex molecular pollutants, heavy metals, and contaminants. Therefore, site water (including processed wastewater or cooling blowdown) can potentially be used as a feed source, reducing freshwater demand and treating problematic discharge streams concurrently with hydrogen production.

Your website cites an aggressive estimated CAPEX recovery within approximately 360 days (roughly one year) of operation. This is predicated on the extremely low operational cost of hydrogen production using MeV generators (especially if they are powered by a portion of the hydrogen they produce in a "hydrogen-to-hydrogen" loop) and the continued revenue from selling electricity to the grid at competitive rates.

The hydrogen is classified as green only if the electricity powering the MeV generators is from a carbon-free source. The ideal scenario presented is a closed-loop system: use a portion of the hydrogen output to generate carbon-free electricity (via turbines/fuel cells) to power the MeV generators themselves. If grid power is used, the carbon intensity depends on the local grid's energy mix. The ultimate vision is a fully self-sustaining, 100% renewable "hydrogen producing hydrogen" system on-site.