Proprietary Technology

Devices Built on Decades of Research

Every product we develop begins with rigorous experimentation and replication. These are not theoretical concepts — they are working devices, refined through hands-on research and made available to the independent experimenter community.

Research Devices

Bedini SG Energizer — Mark IV
Radiant Energy
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Bedini SG Energizer — Mark IV

The most refined iteration of Bedini's open-source energizer circuit

Our Mark IV represents a decade of iterative refinement on John Bedini's School Girl energizer design. Precision-wound bifilar coils, optimized rotor geometry, and a solid-state switching circuit deliver consistent radiant energy capture and battery conditioning performance that has been independently verified by members of our research community.

The Bedini SG Energizer operates on the principle of radiant energy capture during the back-EMF spike of a collapsing magnetic field. Unlike conventional motors, the SG circuit uses this normally-wasted energy to charge a secondary battery while running from a primary source — a phenomenon Bedini documented extensively and that our team has replicated and refined over many years of experimentation.

Coil Configuration
Bifilar wound, 24 AWG, 500 turns
Rotor Diameter
152 mm, 8-magnet array
Input Voltage
12V DC
Input Current
200–800 mA (adjustable)
Output
Radiant pulse, battery conditioning
Switching
Solid-state, 2N3055 transistor array
Tesla Bifilar Pancake Coil — Research Kit
Electromagnetic
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Tesla Bifilar Pancake Coil — Research Kit

Hand-wound to Tesla's original flat spiral specification

A precision-wound bifilar pancake coil following Tesla's 1894 patent specification (US512340). Each coil is hand-wound using 26 AWG enamelled copper wire on a phenolic former, with both winding layers brought out to separate terminals for full experimental flexibility.

Tesla's bifilar coil design creates a unique capacitive-inductive hybrid that behaves differently from conventional single-wound coils. The two parallel conductors wound simultaneously create a distributed capacitance that, at resonance, produces effects Tesla described as 'electrical oscillations of great intensity.' This kit includes the coil, former, terminal block, and a detailed research guide covering resonance tuning and experimental configurations.

Wire Gauge
26 AWG enamelled copper
Former Material
Phenolic resin, 150 mm diameter
Turns per Layer
120 turns (240 total, bifilar)
Self-Resonant Frequency
Approx. 180 kHz (varies)
DC Resistance
~18 Ω per winding
Terminals
4-terminal, fully isolated
Homopolar Generator — Research Unit
Inertial / Rotational
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Homopolar Generator — Research Unit

Inspired by DePalma's N-Machine experiments

A precision-machined homopolar generator for replicating and extending Bruce DePalma's N-Machine research. The rotating conductive disk and fixed magnetic field produce a continuous DC output without commutation — a fundamentally different generation mechanism from conventional alternators.

The homopolar generator is one of the oldest and least-understood electrical machines. Faraday built the first one in 1831, and DePalma's N-Machine experiments in the 1970s and 80s suggested anomalous output characteristics that have never been fully explained by conventional electromagnetic theory. This research unit is designed for serious experimental investigation — all components are precision-machined, instrumentation ports are provided, and full documentation of our own experimental results is included.

Disk Material
Oxygen-free copper, 200 mm diameter
Magnetic Field
Neodymium array, 0.8 T at disk surface
Output Voltage
0.5–2.5V DC (speed dependent)
Max Continuous Current
40A (brush limited)
Brush Material
Silver-graphite composite
Drive
Belt drive, compatible with standard motors
Crystal Battery Research Kit
Electrochemical
Currently Unavailable — Notify Me

Crystal Battery Research Kit

Replicate and extend Bedini's crystal cell experiments

A complete kit for constructing and studying crystal battery cells — the electrochemical phenomenon documented by John Bedini and others in which certain crystalline mineral compounds produce a sustained low-voltage output without conventional chemical reaction.

Crystal batteries remain one of the most contested and least-understood phenomena in independent energy research. Our kit provides the materials and methodology to conduct rigorous, repeatable experiments — including multiple cell configurations, precision measurement guidance, and a detailed log of our own multi-year observation data. Whether you are a sceptic or a believer, this kit gives you the tools to find out for yourself.

Cell Materials
Alum crystal, zinc, copper electrodes
Typical Output
0.8–1.2V per cell (open circuit)
Kit Contents
6 cell assemblies, measurement guide
Electrode Area
50 cm² per cell
Observation Period
Minimum 90-day study protocol
Documentation
48-page research guide included

Custom Research & Development

Working on a specific replication project or need a custom device built to your specifications? Our team takes on a limited number of custom R&D engagements each year.