Green & clean
No combustion and no carbon emissions at the point of heat generation.
//The technology
LENR: the energy source of the future
Six key properties that define OGE's heat source
Environmental & safety
Safe, radiation-free & waste-free
No ionizing radiation and no radioactive waste requiring long-term storage.
Virtually unlimited & non-depleting
Deuterium is abundant. Around $2 million worth of deuterium has a theoretical energy potential equivalent to approximately 4.9 million tons of coal.
Operational & cost
Low capital & operating costs
Designed to deliver a low cost of heat over the lifetime of the system.
No size limitations
The technology does not require a minimum viable scale, enabling compact and modular heat sources.
No location constraints
No fuel logistics, no fuel storage, and minimal location constraints.
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
COPₑ 15 · sustained over 80 h · measurements of power output vs power input
Micro-craters in palladium
Micro-craters observed on the electrode surface after an experiment starting below 10 °C. Their formation is consistent with localized temperatures above palladium's 1,555 °C melting point.
//How it works
Inside the OGE cell
An electrolysis cell drives deuterium into a palladium lattice using a highly modulated current.
- Deuterium + DeuteriumD₂ + D₂
- Fusion inside a metal latticepalladium
- Helium‑4, and heat24 MeV generated in the lattice
Energy potential · the fuel
Deuterium as fuel
Virtually unlimited and non-depleting. The energy potential of 250 kg of deuterium is equivalent to ≈ 4.9 million tons of coal.
4.9M tons
Coal
25.2M barrels
Crude oil
2.6M tons
LNG
Input · the cell
| Cathode | Palladium |
| Anode | Platinum |
| Cell initial temperature | Below 10 °C |
//In the field
OGE at ICCF
OGE 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
Co-founder of OGE. Leads the company and its investors and partner relationships.
MSc in Aeronautical Engineering; EMBA, Technion Haifa. Former chairman of IEA's Mechanical and Aerospace Engineering.
Hillel Kain
COO & Product Manager
Co-founder of OGE. Runs operations and leads the transition from laboratory cell to industrial product.
BSc in Mechanical Engineering. MSM, Boston University.
Dr. Shaul Lesin
CTO
Co-founder of OGE; leads OGE's research and technology development.
PhD in Chemical Engineering. Former CEO of Energetics Technologies.
Tania Zilov
Electrochemist & lab manager
Leads OGE's cell chemistry, cathode preparation, and laboratory operations.
MSc, BSc, Electro-Chemist. Former lab manager at Energetics Technologies.
Dr. Joseph A. Englender
Research Chemist
Contributes to electrochemistry, process development, experimental design, and data analysis.
PhD in Chemistry.
Kobi Adulami
Heat Transfer Expert
Focuses on heat transfer and thermal system design.
BSc in Mechanical Engineering; MBA. IAI Project Coordinator.
Professor Ehud Greenshpan
Scientific Advisor
Provides scientific review and guidance on physics and safety.
Ph.D., Nuclear Engineering, Professor Emeritus, UC Berkeley. Senior scientific adviser to Energetics Technologies.
Professor Fernando Patolsky
Scientific Advisor
Advises on research methodology, experimental design, and results analysis.
Ph.D. in 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 OGE 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