How it works

Water in. Hydrogen on demand. Electricity out. Water back.

Inside the vehicle, Liquidynamix runs one continuous closed loop. Water is dissociated below 250°C in a membrane-free, temporally decoupled microwave redox-plasma reactor; the hydrogen is converted to electricity in a fuel cell; and the only exhaust is water, which returns to the loop. Nothing is produced until it is needed, and nothing is stored between production and use.

Dissociation: <250°C Purity: ≥99.99% Switch: <60 sec Efficiency: ≤33 kWh/kg Membrane-free
The Closed Loop

Five stages, one vehicle

Generation, conversion, and recovery happen in a single place, just in time. There is no tank of hydrogen to fill, because the hydrogen is made when the accelerator is pressed.

01

Water in

Water is the only feedstock. A compact on-board supply feeds the generation stage.

Feedstock: H₂O
02

Redox split

The microwave redox-plasma reactor dissociates water below 250°C. Hydrogen and oxygen form in separate time windows.

Redox-plasma · <250°C
03

Hydrogen out

High-purity hydrogen is produced on demand, at the point of use, and consumed immediately.

Purity ≥99.99%
04

Fuel cell

The reversible solid oxide system converts hydrogen to electricity in under a minute.

rSOECS · <60 sec
05

Water back

The only exhaust is water, which returns to the loop. The cycle repeats.

Loop closed
The Technology

Two technologies, one integrated system

The loop is built on the two core Liquidynamix technologies, engineered to work as a single closed system with 5-stage heat recuperation.

Microwave Redox-Plasma Reactor

Membrane-free, temporally decoupled water dissociation on demand.

  • Dissociation temperature<250°C
  • Plasma controlFrequency-tracked
  • Gas separationTemporal, membrane-free
  • FeedstockWater

rSOECS: making power

Reversible solid oxide system converts hydrogen to electricity.

  • Mode switching<60 sec
  • Round-trip efficiency≥62%
  • FunctionReversible
  • Storage riskZero

5-stage heat recuperation

The heat of dissociation and conversion is recovered and reused across five stages, holding the loop to an efficiency of ≤33 kWh/kg. Energy stays in the system instead of escaping as waste. The reactor produces hydrogen and oxygen in alternating time windows, so no membrane is needed and no explosive mixture can form.

Why Just in Time

Hydrogen without the hydrogen problem

Central production and storage of hydrogen gas brings danger, price control, and leakage. Generating on board removes all three.

The central model

  • Large central production plant
  • Compression and cryogenic storage
  • Pipeline or truck transport
  • Dispensing losses and boil-off
  • Exposed to central-market pricing

The Liquidynamix loop

  • Water as the only feedstock
  • Just-in-time generation on board
  • Fuel cell conversion to electricity
  • Exhaust water returned to the loop
  • Insulated from central price control
Safety by Design

The safest way to make hydrogen

The reactor is built around one principle: hydrogen and oxygen are never produced at the same time.

Temporal Decoupling

No simultaneous gases

Oxygen and hydrogen evolve in alternating time windows, never in the same cell at the same moment. The explosive mixture that plagues conventional electrolyzers cannot form.

Membrane-Free

Nothing to fail

Gas separation is achieved by time and steam condensation, not by polymer membranes. There is no membrane to degrade, replace, or leak hydrogen across.

Low Temperature

No bulk heating

Microwave redox cycling dissociates water below 250°C, and frequency-tracked resonance holds plasma gas temperature near 40°C under feedback control.

Specifications grounded in peer-reviewed literature: Serra et al., Nature Energy (2020), microwave water splitting below 250°C; Cook et al., Journal of Physics: Energy (2025), steam-argon plasma up to 80% plasma-power efficiency; Kwon et al., IEEE Transactions on Plasma Science (2017), resonance-tracked plasma gas at 40°C.

Built for the Road

Vehicle applications

The loop is designed for vehicles that run long, run heavy, and cannot afford to depend on hydrogen refueling infrastructure that barely exists.

$800B+
Transport market
$200B+
Microgrids and remote power
0kg
Hydrogen stored on board
Heavy & Long-Haul

Zero-emission freight

Heavy and long-haul mobility needs range and rapid energy delivery. On-board generation delivers both without a hydrogen refueling network.

Remote & Off-Grid

Independent power

The reversible system also operates as stationary storage, serving microgrids and critical infrastructure where fuel supply chains are fragile.

Resilience

No fuel dependency

Water is available almost anywhere. A vehicle that makes its own hydrogen cannot be stranded by a fuel price spike or an empty station.

Join the loop

We're seeking strategic investors, business angels, manufacturing partners, and EU funding opportunities to scale the closed loop from prototype to road.

View Investment Opportunity Contact the Team