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A Different Way to Split Water

Hydrogen production has traditionally relied on applying constant electrical force. While effective, this approach is inherently energy-intensive.

Targeted Energy Delivery
Core Concept

From Constant Force to Targeted Energy

The technology platform under development takes a fundamentally different path. Instead of steady voltage, it uses controlled electrical excitation within a cold plasma environment to interact with water in a more precise and efficient way.

This shift—from constant force to targeted energy delivery—is the foundation of the platform.

Cold Plasma Animation
The Medium

What Is Cold Plasma?

Most people are familiar with solids, liquids, and gases. Plasma is often called the fourth state of matter. Cold plasma is created when electricity energizes a gas or vapor without heating it to extreme temperatures.

Instead of making everything hot, only a small fraction of particles—mainly electrons—carry high energy. Because the bulk material stays near room temperature, it is called cold plasma.

Resonance and Precision
Comparative Analysis

A Simple Analogy: Resonance & Precision

Traditional Electrolysis: Brute Force

Like pushing a heavy object continuously against friction—requiring constant, high-intensity force to maintain any movement.

Cold Plasma: Resonance

Like tapping the object at exactly the right resonant frequency—using precise, minimal energy to create massive separation.

Revolutionary Efficiency
How Cold Plasma Is Created
Process

How Cold Plasma Is Created

Cold plasma is created using carefully controlled electrical pulses rather than heat or combustion.

  • Electricity is applied in short, controlled bursts
  • These pulses create localized electrical discharges
  • The surrounding environment remains at moderate temperature
Distributed Interaction Architecture
Architecture

Distributed Interaction Architecture

Instead of relying on a few fixed reaction points, the platform operates with a distributed internal interaction structure.

Energy effects are spread throughout the reaction volume
Electric fields are used more efficiently
The process remains stable and uniform
Industrial Operating Conditions
Industrial Design

Designed for Industrial Conditions

The platform is engineered to operate under moderate temperatures and pressures, avoiding the extremes associated with some alternative hydrogen pathways.

  • Simpler balance-of-plant
  • Easier system integration
  • Improved reliability
  • Modular deployment
Scalability
Scalability

Scalability Through Modularity

Rather than scaling through single, oversized units, the system scales by replicating standardized modules. Scalability is treated as an engineering requirement from the outset.

  • Preserves performance as capacity increases
  • Reduces construction and commissioning risk
  • Enables phased deployment aligned with demand
Technology Readiness
Validation

Readiness & Validation

The platform is progressing through a staged development and validation roadmap aligned with industrial expectations.

  • Pilot-scale operation
  • Performance validation under real conditions
  • Independent technical and economic review
Industrial Trust
Trust

Built for Trust

The technology is being developed to withstand scrutiny from industrial customers, government stakeholders, and infrastructure investors.

"Performance and efficiency are intended to be measurable, auditable, and verifiable, not theoretical."

Ready to see the numbers?

Technology is only as good as its economic viability. See how low-energy inputs translate to market-leading LCOH.