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INVESTIGATION OF BIOLOGICAL OBJECTS IN HIGH FREQUENCY ELECTRICAL FIELDS

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A. K. Mulatov, R. S. Stepanov, S. D. Kirlian, V. H. Kirlian

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Strong pulsating high frequency fields with a small average amount of power may extract electrons from living objects without detrimental effects and are normally safe for living organisms.

Plain English Summary

Summary written for general audiences

Strong pulsating high frequency fields with a small average amount of power may extract electrons from living objects without detrimental effects and are normally safe for living organisms. The magnitude of the autoelectric emission current depends only on the field potential and the electron work function, where the field potential is determined by the dielectric constant and geometry of the object, and the work function depends on physio-chemical causes.

Why This Matters

A dielectric covering the electrode polarizes in the high frequency field to form a flat condenser system with the observed object, creating high frequency plasma microchannels that connect opposing molecule-dipoles. Electrons and ions move through these microchannels carrying information about the object, while physio-chemical reactions in the organism change the reactive characteristics of cells and the electron work function, altering the resonance frequency.

Finding

Autoelectrons extracted from observed objects excite microchannels of high frequency discharge. All uniform field of this discharge is produced by means of a dielectric which covers the electrode.

In their words

“Autoelectrons extracted from observed objects excite microchannels of high frequency discharge. All uniform field of this discharge is produced by means of a dielectric which covers the electrode.”

Exposure Details

Magnetic Field
1000 µT

Exposure Context

This study used 1000 µT for magnetic fields:

Building Biology guidelines are practitioner-based limits from real-world assessments. BioInitiative Report recommendations are based on peer-reviewed science. Check Your Exposure to compare your own measurements.

Where This Falls on the Concern Scale

Study Exposure Level in ContextStudy Exposure Level in ContextThis study: 1000 µTExtreme Concern - 5 mGFCC Limit - 2,000 mGEffects observed in the Extreme Concern range (Building Biology)FCC limit is 200 times higher than this level
A logarithmic frequency spectrum from 10 Hz to 100 GHz showing where this study's 2.45 GHz exposure sits relative to common EMF sources.Where This Frequency Sits on the EMF SpectrumELFVLFLF / MFHF / VHFUHFSHFmm10 Hz100 GHzThis study: 2.45 GHzPower lines50/60 HzCell phones~1 GHzWiFi2.4 GHz5G mm28 GHzLogarithmic scale
Cite This Study
A. K. Mulatov, R. S. Stepanov, S. D. Kirlian, V. H. Kirlian (n.d.). INVESTIGATION OF BIOLOGICAL OBJECTS IN HIGH FREQUENCY ELECTRICAL FIELDS.
Show BibTeX
@article{investigation_of_biological_objects_in_high_frequency_electrical_fields_g7165,
  author = {A. K. Mulatov and R. S. Stepanov and S. D. Kirlian and V. H. Kirlian},
  title = {INVESTIGATION OF BIOLOGICAL OBJECTS IN HIGH FREQUENCY ELECTRICAL FIELDS},
  year = {n.d.},
  
  
}
No DOI on file for this study.

Quick Questions About This Study

Strong pulsating high frequency fields with a small average amount of power may extract electrons from living objects without detrimental effects and are normally safe for living organisms.
The magnitude of the current depends only on the field potential and the electron work function, following the relationship I = I0 exp(-v/E).
The potential of the electric field is determined by the dielectric constant of the observed object and the geometry of the object forming an oscillatory circuit with the generator.
Physio-chemical reactions in the living organism change the reactive characteristics of cells and the electron work function, causing the module of total resistance for each microchannel to change and the resonance frequency to shift.