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BIOCHEMICAL ASPECTS OF THE BIOLOGICAL EFFECT OF A LOW-FREQUENCY PULSED ELECTROMAGNETIC FIELD

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F. A. Kolodub, G. I. Yevtushenko · 1972

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1972 Soviet research found low-frequency pulsed EMFs altered cellular energy metabolism in rodents, establishing early evidence of biochemical bioeffects.

Plain English Summary

Summary written for general audiences

This 1972 Soviet research investigated how low-frequency pulsed electromagnetic fields affect biochemical processes in rodents, focusing on carbohydrate and energy metabolism. The study represents early scientific recognition that EMF exposure could alter fundamental cellular processes. This work helped establish that electromagnetic fields can produce measurable biological effects at the molecular level.

Why This Matters

This 1972 study represents a pivotal moment in EMF research history - Soviet scientists were already documenting biochemical changes from electromagnetic field exposure decades before widespread public concern. The focus on carbohydrate-energy metabolism is particularly significant because these are the fundamental processes that power every cell in your body. When electromagnetic fields can alter how cells produce and use energy, we're talking about effects that could ripple through every biological system.

What makes this research especially relevant today is that we're now surrounded by far more complex EMF environments than existed in 1972. If simple pulsed fields could produce biochemical changes in laboratory animals five decades ago, the implications for our current exposure to multiple wireless technologies, smart devices, and power infrastructure deserve serious consideration. The science demonstrates that EMF bioeffects aren't a recent discovery - researchers have been documenting them for generations.

Exposure Information

A logarithmic frequency spectrum from 10 Hz to 100 GHz showing where this study's 7 kHz exposure sits relative to common EMF sources.Where This Frequency Sits on the EMF SpectrumELFVLFLF / MFHF / VHFUHFSHFmm10 Hz100 GHzThis study: 7 kHzPower lines50/60 HzCell phones~1 GHzWiFi2.4 GHz5G mm28 GHzLogarithmic scale

Specific exposure levels were not quantified in this study. Duration: 15 sessions, daily exposure for 3 hours, and an intensity (I) of 72 kA/m for multiple effect; 1.5, 3 and 6 months, daily exposure for 1.5 hours, and an intensity of 24 kA/m for chronic effect

Study Details

To explain the possible biochemical mechanisms of the action of a pulsed low-frequency electromagnetic field on the organism

Investigations were conducted on 480 male white rats. Pulsed electromagnetic fields with an intensit...

The action of a pulsed electromagnetic field causes well-expressed changes in the carbohydrate-energ...

1. Pulsed low-frequency electromagnetic fields (7 kHz) with intensities of 72 and 24 kA/m cause disturbance of carbohydrate-energy and nitrogen metabolism in the brain, liver, heart, and skeletal muscles. 2. The most characteristic shifts in carbohydrate-energy metabolism of all the investigated organs is the formation of a shortage of macroergic compounds (ATP and creatine phosphate), caused by isolation of the processes of oxidative phosphorylation and, as a result of that, intensification of glycolysis (Lowering of the glycogen level and accumulation of lactic acid). 3. The action of a pulsed electromagnetic field causes disruption of the transformations of nitrogen compounds, which leads to accumulation of ammonia in the blood, liver, heart, and skeletal muscles and to phase changes of its level in the brain on the background of a slight increase or absence of changes in the glutamine content. 4. Biochemical mechanisms of the formation of shifts in the ammonia level are different and are caused: in the brain - by inhibition of the deaminization of adenylic acid and deceleration of glutamine synthesis, in the liver - by inhibition of urea synthesis and intensification of protein deamidization, in the heart - by intensification of glutamine deamidization and adenylic acid deaminization, and in the skeletal muscles - by intensification of protein deamidization and the deaminization of adenosine and adenylic acid. 5. On the basis of the degree of expressness of disturbances of carbohydrate-energy and nitrogen metabolism, arising under the effect of a pulsed electromagnetic field, and the periods of their appearance and restoration upon conclusion of the effect, the latter can be arranged in the following order: liver, skeletal muscles, heart, and brain. 6. The presence of a correlation between the disturbance of metabolic processes in the investigated organs and shifts of the biochemical spectrum of the blood permits recommending determination of the content of lactic acid and ammonia in the blood as tests to reveal initial manifestations of the effect of a pulsed electromagnetic field on the organism also under clinical conditions.

Cite This Study
F. A. Kolodub, G. I. Yevtushenko (1972). BIOCHEMICAL ASPECTS OF THE BIOLOGICAL EFFECT OF A LOW-FREQUENCY PULSED ELECTROMAGNETIC FIELD.
Show BibTeX
@article{biochemical_aspects_of_the_biological_effect_of_a_low_frequency_pulsed_electroma_g6101,
  author = {F. A. Kolodub and G. I. Yevtushenko},
  title = {BIOCHEMICAL ASPECTS OF THE BIOLOGICAL EFFECT OF A LOW-FREQUENCY PULSED ELECTROMAGNETIC FIELD},
  year = {1972},
  
  
}
No DOI on file for this study.

Quick Questions About This Study

The researchers focused on carbohydrate-energy metabolism, examining how low-frequency pulsed electromagnetic fields affected the fundamental processes cells use to produce and utilize energy for basic biological functions.
This study demonstrates that scientists recognized EMF bioeffects decades before public awareness. It shows electromagnetic fields can alter cellular energy production, the foundation of all biological processes, with implications for modern wireless exposure.
Pulsed EMFs deliver electromagnetic energy in bursts rather than continuously. This intermittent pattern can create different biological responses than steady exposure, potentially affecting how cells respond to the electromagnetic stimulus.
Soviet researchers often focused on subtle biochemical and physiological effects of EMF exposure, while Western science initially emphasized only thermal effects. This approach led to earlier recognition of non-thermal biological responses.
Yes, research dating back to 1972 shows EMFs can affect cellular metabolism. Since energy production powers all biological functions, these changes could potentially influence multiple body systems and health outcomes.