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Testing the function of endocrine glands, especially the hypophysis, with short-wave stimulation, with special reference to vegetative dystonia

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Schliephake, E · 1960

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1960 research documented electromagnetic effects on human hormone glands, predating modern wireless concerns by decades.

Plain English Summary

Summary written for general audiences

This 1960 German study examined how short-wave electromagnetic radiation affects endocrine glands, particularly the pituitary gland (hypophysis), in humans. The research focused on using microwave stimulation to test gland function and its relationship to vegetative dystonia, a condition involving autonomic nervous system dysfunction. This represents early medical investigation into how electromagnetic fields interact with the body's hormone-producing systems.

Why This Matters

This research from 1960 represents a fascinating piece of early EMF science that predates our modern wireless world by decades. Dr. Schliephake was investigating something we're still grappling with today: how electromagnetic fields affect our endocrine system, the network of hormone-producing glands that regulate everything from metabolism to stress response. The focus on the pituitary gland is particularly significant because this 'master gland' controls other endocrine organs throughout the body.

What makes this study remarkable is its timing. In 1960, there were no cell phones, no WiFi, no smart devices. Yet researchers were already documenting biological effects from electromagnetic exposure. The connection to vegetative dystonia (autonomic nervous system dysfunction) mirrors many symptoms people report today from EMF exposure: fatigue, sleep disruption, and stress-related disorders. This early work suggests that concerns about EMF effects on our hormonal and nervous systems aren't new - they've been documented for over six decades.

Figures from the Original Paper

Diagrams extracted from the original research document.

graphPage 3 - AI-described figure: A graph showing average blood sugar levels in rabbits after microwave and capacitor field treatments.
p. 3 of the original PDF
chartPage 4 - AI-described figure: Figure 2: Curves showing the average sensitivity values in rabbits for different microwave field strengths and durations.
p. 4 of the original PDF
chartPage 5 - AI-described figure: Blood sugar curves before and after Alloxan treatment (Figure 3)
p. 5 of the original PDF
chartPage 6 - AI-described figure: Figure 5: Curves showing blood sugar levels in rabbits before and after heating and cooling treatments.
p. 6 of the original PDF

Exposure Information

A logarithmic frequency spectrum from 10 Hz to 100 GHz showing where this study's 27 MHz exposure sits relative to common EMF sources.Where This Frequency Sits on the EMF SpectrumELFVLFLF / MFHF / VHFUHFSHFmm10 Hz100 GHzThis study: 27 MHzPower lines50/60 HzCell phones~1 GHzWiFi2.4 GHz5G mm28 GHzLogarithmic scale

Specific exposure levels were not quantified in this study. Duration: 5 minutes for head stimulation, 15 minutes for hypophysis stimulation

Study Details

To investigate the effects of short-wave stimulation on endocrine gland function, particularly the hypophysis, and to determine the relationship between these effects and vegetative dystonia. To establish whether blood sugar measurements following hypophysis stimulation can serve as an objective diagnostic tool for vegetative dystonia.

Experiments conducted on rabbits and humans using short-wave stimulation (11m wavelength and 12.5cm ...

Short-wave stimulation of the hypophysis caused blood sugar to rise by approximately 30 mg/dL on ave...

Short-wave stimulation activates endocrine glands, particularly the hypophysis, causing measurable changes in blood sugar levels. The hypophysis response is consistent under similar conditions but can be modified by physical measures. The blood sugar response to hypophysis stimulation can be used as an objective diagnostic tool for vegetative dystonia, distinguishing it from psychogenic conditions. The study demonstrates that vegetative dystonia involves altered endocrine function, particularly in the trophotropic direction. Blood sugar measurements following hypophysis stimulation are more sensitive and objective than blood pressure measurements for diagnosing this condition.

Cite This Study
Schliephake, E (1960). Testing the function of endocrine glands, especially the hypophysis, with short-wave stimulation, with special reference to vegetative dystonia.
Show BibTeX
@article{testing_the_function_of_endocrine_glands_especially_the_hypophysis_with_short_wa_g4119,
  author = {Schliephake and E},
  title = {Testing the function of endocrine glands, especially the hypophysis, with short-wave stimulation, with special reference to vegetative dystonia},
  year = {1960},
  
  
}
No DOI on file for this study.

Quick Questions About This Study

The hypophysis (pituitary gland) is your body's 'master gland' that controls other hormone-producing organs. This 1960 study found that short-wave electromagnetic fields could stimulate this crucial gland, potentially disrupting the entire endocrine system's delicate balance.
Vegetative dystonia refers to dysfunction of the autonomic nervous system, which controls unconscious body functions like heart rate and digestion. This 1960 study connected electromagnetic exposure to this condition, suggesting EMF can disrupt basic bodily functions.
This 1960 study used short-wave radiation similar to frequencies in today's wireless devices. The documented effects on hormone glands and nervous system function provide early evidence that EMF biological impacts aren't new discoveries.
Yes, this study examined using short-wave electromagnetic fields to test and potentially stimulate endocrine gland function. Medical diathermy (therapeutic heating with EMF) was common in the 1960s, though biological effects weren't fully understood.
This 1960 research investigated how electromagnetic fields affected multiple endocrine glands, with particular focus on blood sugar regulation and pituitary function. The study suggests EMF can influence the body's entire hormonal control system.