//Low Energy Nuclear Reactions

OGE presents the new source of clean and continuous industrial heat

Clean Green Affordable

A novel heat source demonstrated in the laboratory at room temperature and standard atmospheric pressure. OGE will replace the current polluting heat source technology with the LENR (Low Energy Nuclear Reactions) process (no radioactive waste).

Contact for Partnership How LENR works →

//Our vision

LENR has the potential to be a game changer in the transition to clean, sustainable, and affordable energy

OGE is developing and will supply modular heat generation units based on its LENR technology. The modules are designed for integration into industrial and commercial heating systems, enabling system integrators and OEMs to provide complete heating solutions for end users.

Paper
Food & Beverage
Pharmaceuticals & Biotech
District Heating
Hospitals

//The technology

LENR: the energy source of the future

Six key advantages of OGE's heat source technology

Environmental & safety

Green & clean

No combustion and no carbon emissions at the point of heat generation.

Safe, radiation-free & waste-free

No ionizing radiation has been observed, and no radioactive materials are used in the process.

Virtually unlimited & non-depleting

Deuterium is abundant. The theoretical energy potential of 250 kg of deuterium is equivalent to approximately 4.9 million tons of coal.

Operational & cost

Low capital & operating costs

Small footprint with minimal environmental constraints, with the potential to significantly reduce dependence on traditional energy sources and their associated costs.

Scalable & modular

Designed to enable compact, modular heat sources that can be scaled to meet different heat demands.

No location constraints

No fuel supply or storage infrastructure required, enabling deployment close to the point of heat use.

Laboratory demonstrated

700+

experiments

10,000+

experimental hours

~130

experiments with observed excess power

up to COP 25

Coefficient of Performance

The results below were obtained in earlier experimental research conducted by the OGE team at Energetics Technologies.

17-hour run

Excess power up to 35 W (0.71 W input)

Average excess power of ~21 W over 17 hours

COP up to 25
Excess power = measured thermal output − electrical input power. COP = excess power / electrical input power.

80-hour run

Excess power up to 65 W

Average excess power of ~12 W over 80 hours

COP up to 15

Micro-craters in palladium

Micro-craters were observed on the palladium electrode surface after an experiment that started below 10 °C. Their morphology indicates localized melting of the palladium, implying local temperatures reaching at least its melting point of approximately 1,555 °C.

Scanning electron micrograph of a micro-crater on the palladium electrode surface after the experiment, imaged at 24,000× with a 2 µm scale bar. — SEM image of a micro-crater on the palladium electrode surface after the experiment. Magnification: 24,000×. Scale bar: 2 µm. Sample US-1-17-b-6

//How it works

Inside the OGE cell

An electrolysis cell drives deuterium into a palladium lattice using a highly modulated current.

Reaction pathway (hypothesized)

Deuterium + DeuteriumD₂ + D₂
Interaction within the palladium lattice
Helium‑4 + heat~24 MeV

The underlying reaction mechanism is under scientific investigation.

A LENR reactor assembly on a laboratory bench. — A LENR reactor sits on a tabletop.

Energy potential · the fuel

Deuterium as fuel

Virtually unlimited and non-depleting. The theoretical energy potential of 250 kg of deuterium is equivalent to approximately 4.9 million tons of coal.