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Parallel Path Magnetic Amplifier

Inventor: Charles (Joe) Flynn
Device: Parallel Path Magnetic Amplifier
Folder: flynn
Original: Open article
Confidence
0.60
Practicability
0.50
Evidence
0.40
Fringe Score
0.80
Risk
0.20
TRL
5

Goal

Provide higher-power-density, lighter, cooler, and more energy-efficient magnetic actuators, motors and generators by steering permanent-magnet flux with low-power coils.

Problem

Conventional electromagnetic devices are relatively heavy, bulky, generate excess heat, and have limited efficiency.

Concept Summary

Parallel Path Magnetic Technology (PPMT) uses two or more permanent magnets placed in parallel with flux-steering coils between them. By pulsing the coils, the magnetic flux is redirected, producing a multiplied force or torque that can be held without continuous power. The principle claims leverage ratios greater than 1:1, enabling efficiencies reported above 100 % and power densities higher than conventional designs.

Principles

  • Magnetic flux steering with parallel circuits
  • Leverage of permanent-magnet flux
  • Transient coil pulses to switch magnetic polarity
  • Retention of force/torque after coil power is removed

Scientific Domains

Physics Electrical Engineering

Materials

  • NdFeB (N-35) permanent magnet
  • Copper (field coil, copper pipe for experiment)

Mechanisms of Action

  • Flux steering coils produce a magnetic polarity that couples with permanent-magnet flux
  • Combined flux yields a squared-force law, multiplying output force
  • Air-gap creation locks the actuator in a high-force state without power

Energy Sources

Electrical energy (coil current) Intrinsic magnetic field of permanent magnets

Applications

  • Industrial motors
  • Aerospace actuators
  • Automotive powertrain
  • Marine propulsion
  • Energy generation

Claimed Performance

Efficiencies above 100 % (over-unity) reported; torque up to 2.5 x line current; prototypes ranging from 5 W to 10 kW.

Experimental Evidence

Flynn Research has built >50 prototypes and production models; a floating-magnet demonstration shows magnetic steering in a copper pipe; claimed efficiencies above 100 % are described as experimentally determined.

Limitations

  • No independent, peer-reviewed verification of over-unity claims
  • Reliance on proprietary patents and limited public data
  • Scalability and long-term reliability not demonstrated

Red Flags

  • Over-unity efficiency claims
  • References to ether/aether and non-mainstream physics
  • Lack of peer-reviewed experimental data
  • Potential pseudoscientific language

Keywords

magnetic flux steering parallel magnetic circuits over-unity permanent magnet actuator high-efficiency motor

Related Technologies

Magnetic latching actuator Magnetic clutch Magnetic generator

📷 Images

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