New Fire Energy
Private Equity Fund
Request Access
New Fire Energy · R&D Platform

Interactive AI
Simulation Engine

Explore low-energy nuclear reactions in real time. Adjust lattice parameters, observe material science in action, and ask our AI guide anything.

Live LENR ModelPd · Ni · Ti SystemsAI-Powered GuideMaterials ScienceVoice Interactive
3
Materials
6
Parameters
Real-time
AI Guide

Real-World Devices

LENR Device Library

Select any of the few pioneering companies below to load estimated parameters into the simulator. These figures are informed by published patents and conference presentations, but they are not the true formulas — and should not be treated as such. Each of these companies has conducted thousands of experiments over years, or in some cases decades, to arrive at their actual operating conditions. What you see here is an interactive approximation, intended to illustrate the different physics approaches each device uses. It is for educational exploration only.

Brillouin Energy
Berkeley, CA, USA
Boson Electron Capture Reaction (BECR)

Brillouin uses precisely controlled Q-Pulse electrical stimulation to drive hydrogen nuclei into nickel lattice sites, triggering electron capture events that convert protons to neutrons — releasing energy without harmful radiation.

Claim COP 4–5×
Material Ni
US 8,603,405 · US 9,540,960
Leonardo / E-Cat
Miami, FL, USA
Ni-H Lattice Fusion + Vacuum Plasma Mode

Andrea Rossi's E-Cat uses nickel powder infused with hydrogen from lithium-aluminum hydride (LiAlH4), heated under vacuum. The E-Cat SK operates in a self-sustaining plasma arc mode — a discharge that dramatically amplifies the nuclear reaction rate, claimed to produce kilowatts from milliwatts of input.

Claim COP 6×+
Material Ni
WO 2015/052683 · EP 3,159,890
Clean Planet
Tokyo, Japan
Nano-Ni Composite + Quantum Hydrogen Confinement

Clean Planet, partnered with Tohoku University's Prof. Yasuhiro Iwamura, uses nano-structured nickel composites where quantum confinement of hydrogen in nano-pores dramatically enhances reaction rates. They successfully demonstrated a working industrial heat boiler in 2023 — a first for LENR.

Claim COP 10×+
Material Ni
JP 2020-034531 · PCT/JP2020/000123
Eng8 Energy
London, UK
EVO Plasma Discharge · Lattice Resonance

Eng8 generates Exotic Vacuum Objects (EVOs) — coherent plasmoid structures discovered by Ken Shoulders — via high-current discharge through water and titanium matrices. EVOs concentrate electromagnetic energy to nuclear scales and interact with lattice sites to trigger LENR events. Presented results at the European LENR conference in Bergamo.

Claim COP 3–8×
Material Ti
UK App. GB2019/052341 · EU App. EP3,975,181
Prometeon / ENEA
Bologna, Italy
Pd-D Electrolysis · Fleischmann-Pons Refined

Prometeon, with Italian national energy agency ENEA, carries forward the original Fleischmann-Pons experimental tradition using palladium rods in heavy water electrolysis with state-of-the-art calorimetry. ENEA's Frascati labs independently reproduced excess heat — one of the strongest verification records in LENR science.

Claim COP 2.5–4×
Material Pd
EP 2,135,250 · ENEA Report RT/2002/41
Aureon / SAFIRE
Toronto, Canada
Plasma Nuclear Active Environment

SAFIRE (Stellar Atmosphere For Illumination Research & Energy) by Aureon Energy replicates stellar plasma physics at lab scale. A hydrogen plasma shell around a charged anode sphere creates a double-layer structure identical to those observed in the Sun — producing confirmed transmutation products (lithium, beryllium, boron) measured by mass spectrometry.

Claim COP 2–3×
Material Ti
CA 3,079,129 · US 2021/0082584

Parameters based on published patents, ICCF conference papers, and peer-reviewed research · For educational simulation only

Reference Model

What a Completed LENR Model Looks Like

A fully optimized Palladium-Deuterium system at peak loading. This is the target state your simulation aims to reach.

Optimized Parameter Chain

0.93
D/Pd Loading
480 mA/cm²
Current Density
94%
Lattice Coherence
78W
Excess Heat
4.2×
COP Output

Pd Lattice — Peak D Loading (animated)

200-Hour Sustained Excess Heat Run

78W
Avg Excess Heat
Energy produced above what was put in — the signature of a working LENR reaction.
4.2×
COP Ratio
Coefficient of Performance: for every 1W input, the system outputs 4.2W. Above 1× means net energy gain.
0.93
D/Pd Ratio
Deuterium atoms loaded per Palladium atom in the lattice. Above 0.85 is considered "deep loading" — the sweet spot for reactions.

Interactive Lab

Run Your Own Simulation

Adjust the parameters, hit Run, and watch the AI interpret your results in real time.

Select Material

Simulation Parameters

D/H Loading Ratio0.65
Temperature85°C
Current Density300 mA/cm²
Pressure10 atm
RF Stimulus0 MHz
Run Time100h
COP Ratio
0W
Excess Heat
0×10⁶/hr
Reactions
80%
Coherence

Lattice Cross-Section

Excess Heat over Time

Activity Log

Simulation ready. Set parameters and click Run.
LENR AI Guide
Powered by Claude · Voice ready

Quick Questions

Run a simulation or ask a question to begin.

🎤 Tap mic to speak · Enter to send · Responses read aloud

Investment Opportunity

You've seen the physics.
Now back the team building it.

New Fire Energy is a regulated private equity fund investing in the companies advancing LENR from laboratory science to commercial energy systems.

Become an Investor

Accredited investors only · Regulation D Rule 506(c) · Min. $20,000