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Atmospheric Electrical Power ( II )

Inventor: Hermann Plauson
Year: 1920
Device: Plauson's atmospheric electricity converter
Folder: plauson2
Original: Open article
Confidence
0.85
Practicability
0.40
Evidence
0.50
Fringe Score
0.60
Risk
0.30
TRL
3

Goal

Convert ambient atmospheric static electricity into usable continuous electrical power.

Problem

Lack of universally available, low-cost energy sources; need for off-grid power in remote locations.

Concept Summary

Plauson's system uses radium-coated metal needles mounted on large magnesium-aluminium alloy aerostats (balloons). The needles ionise the surrounding air, allowing the static electric field of the atmosphere to charge the balloon. The collected charge is transferred through coils, capacitors and spark gaps to produce rectified continuous current pulses that can power devices such as LEDs.

Principles

  • Electrostatic charge collection
  • Ionisation of air by radioactive (radium) needles
  • High-voltage rectification via spark gaps
  • Resonant conversion using coil-capacitor circuits
  • Use of conductive balloons as large-area collectors

Scientific Domains

Physics Atmospheric electricity Electrical engineering

Materials

  • Radium (radioactive compound)
  • Magnesium-aluminium alloy (balloon skin)
  • Metal needles (e.g., copper or steel)
  • Zinc amalgam patches
  • Copper wire (coils)
  • Capacitor plates (glass/ceramic)
  • Spark-gap electrodes (metal)

Mechanisms of Action

  • Radium-induced ionisation creates free charge carriers in the air.
  • Needle-mounted collectors attract atmospheric ions, charging the balloon surface.
  • Stored electrostatic energy is discharged through spark gaps into coil-capacitor networks.
  • Resonant circuits convert the pulsed discharge into continuous AC/DC output.

Energy Sources

Ambient atmospheric static electricity

Applications

  • Off-grid LED lighting for remote communities
  • Low-power domestic electricity
  • Neon lighting in areas without grid access

Claimed Performance

Power output between 0.72 kW and 3.4 kW from one or two aerostats positioned 300 m above ground level.

Experimental Evidence

Plauson reported obtaining 0.72 kW-3.4 kW from aerostats; MIR research states that a simple 5 m zinc antenna can light several white LEDs.

Limitations

  • Requires large high-altitude aerostats (~=300 m) for significant power
  • Use of radium introduces radioactive safety concerns
  • Low power density compared with solar or wind
  • Scalability and long-term durability not demonstrated

Red Flags

  • Use of radioactive radium needles
  • Historical claims lack modern peer-reviewed validation
  • Potential over-optimistic power estimates

Keywords

atmospheric electricity electrostatic generator aerostat radium static electricity conversion renewable energy

Related Technologies

Tesla coil Electrostatic precipitator High-altitude wind turbines Atmospheric ion harvesters

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