Green & clean
No combustion, no carbon, no emissions at the point of generation.
//The technology
LENR: the energy source of the future
Six properties that define the heat source OGEnergy supplies.
Environmental & safety
Safe, radiation-free, and waste-free
No radiation during operation and no radioactive waste to store afterwards.
Virtually unlimited and non-depleting
Deuterium is abundant. 250 kg costs roughly $2M and matches 4.9 million tons of coal.
Operational & cost
Low capital and operating costs
Reduced cost per unit of energy across the life of the plant.
No size limitations
The reaction does not impose a minimum viable scale. A reactor fits on a tabletop.
No location constraints
No fuel logistics, no siting restrictions to negotiate.
Laboratory demonstrated
700+
Experiments
250+
operation hours run
up to COP 25
Max coefficient of performance
17-hour run
Excess Power of up to 34 watts
Average ~21 watts for 17 hours
COPₑ 25 · measurements of power output vs power input
80-hour run
Excess Power of up to 32 watts
Average ~12 watts for 80 hours
Sustained over 80 h · measurements of power output vs power input
Micro-craters in palladium
Craters consistent with localized temperatures above palladium's 1550 °C melting point. The cell they formed in was held below 10 °C.
//How it works
Inside the OGEnergy cell
An electrolysis cell drives deuterium into a palladium lattice under a highly modulated input current.
- Deuterium + DeuteriumD₂ + D₂
- Fusion inside a metal latticepalladium
- Helium‑4, and heat24 MeV generated in the lattice
Input · the cell
A palladium cathode and platinum anode sit in an electrolysis cell. Deuterium is driven into the palladium lattice.
| Cathode | Palladium |
| Anode | Platinum wire |
| Cell temperature | Below 10 °C |
Energy potential · the fuel
Deuterium as fuel
Virtually unlimited and non-depleting. 250 kg of deuterium costs roughly $2M and carries the energy of:
4.9M tons
Coal
25.2M barrels
Crude oil
2.6M tons
LNG
//In the field
OGEnergy at ICCF
OGEnergy at ICCF-26, the International Conference on Condensed Matter Nuclear Science.
ICCF-26 · Morioka, Iwate, Japan · May 2025
//The team
The leading team
Roni Gordana
CEO
Leads the company and its investor and partner relationships.
MSc, Aeronautical Engineering. EMBA. Former chairman, IEA Mechanical and Aerospace Engineering. Co-founder of OGEnergy.
Hillel Kain
COO + Product manager
Runs operations and the path from lab cell to industrial product.
BSc, Mechanical Engineering. MSM, Boston University. Co-founder of OGEnergy.
Dr. Shaul Lesin
CTO
Co-founder; former CEO of Energetics Technologies.
Ph.D., Chemistry Engineering.
Tania Zilov
Electro-Chemistry and lab manager
Cell chemistry and cathode preparation; former ET lab manager.
MSc, BSc, Electro-Chemist. Former lab manager, Energetics Technologies.
Dr. Joseph A. Englender
Chemistry
Reaction chemistry and materials characterization.
Ph.D., Chemistry.
Kobi Adulami
Heat transfer
Heat transfer and thermal system design.
BSc, MBA, Mechanical Engineering. Heat transfer expert. IAI project coordinator.
Professor Ehud Greenshpan
Nuclear engineering
Nuclear physics review and safety assessment.
Ph.D., Emeritus Nuclear Engineering, UC Berkeley. Senior scientific adviser, also to ET.
Professor Fernando Patolsky
Chemistry
Nanoscale materials and analytical instrumentation.
Ph.D., Chemistry. Professor, School of Chemistry, Tel Aviv University.
Francis Tanzella
Consultant
Independent replication and calorimetry review.
PhD, Inorganic Chemistry, Former SRI International.
//Contact
Talk to OGEnergy about industrial heat
Have questions about our industrial heat solutions? Reach out directly by phone to speak with our engineering team.
Phone
Address
OGE Ltd.
Hamada 12, Science Park
Rehovot, Israel
Hamada 12, Science Park
Rehovot, Israel