THE FIELD EFFECTS IN THE AREA OF VERY SHORT WAVES; SPONTANEOUS ROTATING FIELDS
Wilhelm Kraany-Ergen
Early research on rotating electromagnetic fields laid groundwork for understanding today's complex wireless exposures.
Plain English Summary
This research by Kransy-Ergen examined spontaneous rotating electromagnetic fields within very short wave frequencies and their effects on electrical alternating fields, colloids, and biological substances. The study focused on understanding how these rotating field patterns behave and interact with various materials including biological matter. This early work contributed to our understanding of complex electromagnetic field interactions that remain relevant to modern EMF health research.
Why This Matters
This research represents early scientific investigation into rotating electromagnetic fields, a phenomenon that's particularly relevant today given our exposure to complex, multi-directional EMF patterns from modern wireless devices. Unlike the simple, uniform fields from single sources, we're now surrounded by rotating and pulsed electromagnetic fields from WiFi routers, cell towers, and smart devices that create constantly changing field patterns around us. The study's focus on biological substances suggests early recognition that living tissue responds differently to various field configurations. What this means for you is that the EMF environment has become far more complex since this foundational research, with rotating fields now common in our daily environment through technologies like MIMO antennas and beamforming systems that weren't anticipated when this work was conducted.
Finding
It is found, that in a certain frequency area the course of the field in the outer space of the cylinder is very different in various phases. One therefore cannot, in the named frequency area, as is permissible with lower frequencies, characterize the powerline course in the vicinity of a body by designating a single powerline picture. In addition, it is found, that in the mentioned frequency area in the outer space of the cylinder spontaneous rotary fields occur.
In their words
“It is found, that in a certain frequency area the course of the field in the outer space of the cylinder is very different in various phases. One therefore cannot, in the named frequency area, as is permissible with lower frequencies, characterize the powerline course in the vicinity of a body by designating a single powerline picture. In addition, it is found, that in the mentioned frequency area in the outer space of the cylinder spontaneous rotary fields occur.”
Figures from the Original Paper
Diagrams extracted from the original research document.
Exposure Information
Specific exposure levels were not quantified in this study.
Study Details
To analyze the field behavior when a homogeneous, infinitely long cylinder is placed in a homogeneous medium with an original alternating field normal to the cylinder axis, focusing on how field behavior differs at certain frequencies and whether spontaneous rotating fields occur.
The study uses mathematical analysis of electromagnetic fields, specifically examining the behavior ...
In a certain frequency area, the course of the field in the outer space of the cylinder is very diff...
The occurrence of rotary fields is of interest because certain non-thermic effects of electrical alternating fields take a special course on colloids in the rotary field. These specially interesting frequencies lie in the short- and ultrashort wave area, when the substances under consideration are biological substances. The general deliberations of the author in an earlier work of the spontaneously occurring rotary fields at certain frequencies are thus illustrated in a special example.
Show BibTeX
@article{the_field_effects_in_the_area_of_very_short_waves_spontaneous_rotating_fields_g6075,
author = {Wilhelm Kraany-Ergen},
title = {THE FIELD EFFECTS IN THE AREA OF VERY SHORT WAVES; SPONTANEOUS ROTATING FIELDS},
year = {n.d.},
}