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Control of Cell Division by the Electrical Voltage of the Surface Membrane

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Clarence D. Cone, Jr. · 1970

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Cell membrane voltage controls division, suggesting EMF disruption of electrical balance could promote cancer.

Plain English Summary

Summary written for general audiences

This 1970 research by Dr. Cone explored how electrical voltage across cell membranes controls cell division, focusing on ionic concentrations and their relationship to DNA synthesis. The study investigated fundamental mechanisms that could explain how disrupted membrane voltage might lead to uncontrolled cell growth, including cancer development.

Why This Matters

This foundational research established a critical connection that EMF researchers continue to explore today: how electrical fields affect the voltage across cell membranes, and how those changes can trigger abnormal cell division. Dr. Cone's work was pioneering because it identified the cellular membrane as a key control point for cell growth and division. What this means for you is significant. Every EMF exposure, from your smartphone to your WiFi router, creates electrical fields that can potentially alter the voltage across your cell membranes. While this 1970 study didn't directly measure EMF exposure, it laid the scientific groundwork for understanding why electromagnetic fields might promote cancer development by disrupting normal cellular voltage patterns that keep cell division in check.

Figures from the Original Paper

Diagram extracted from the original research document.

diagramPage 10 - AI-described figure: Figure 1 illustrates a cellular membrane with ion pumps and concentration gradients for sodium (Na+) and potassium (K+), highlighting voltage differences across the cell membrane.

Exposure Information

Specific exposure levels were not quantified in this study.

Study Details

To develop and experimentally verify a theory that the cellular ionic concentration pattern, caused by the electrical voltage across the surface membrane, exerts precise control over division in body cells, and to explain the functional connection between uncontrolled proliferation and metastasis in cancer.

Tests with mammalian cells were conducted to verify the theory. Rapidly dividing cells in culture we...

Division was completely, but reversibly, blocked by highly negative Eo levels (-70 mV and beyond) wh...

The theory proposes that the cellular ionic concentrations, which generate the EM level, determine whether or not a cell will divide. The fundamental implication is that the primary, the really essential change which occurs when a normal cell becomes transformed to a malignant one consists in a basic functional alteration in the molecular architecture and specificity of the cell surface. This surface aberrancy accounts for both of the primary pathological features of cancer: the decreased adhesiveness of the cells, allowing them to invade and metastasize, while simultaneously producing the associated lowering of the En level which permits the unrestrained proliferation of malignancy.

Cite This Study
Clarence D. Cone, Jr. (1970). Control of Cell Division by the Electrical Voltage of the Surface Membrane.
Show BibTeX
@article{control_of_cell_division_by_the_electrical_voltage_of_the_surface_membrane_g5914,
  author = {Clarence D. Cone and Jr.},
  title = {Control of Cell Division by the Electrical Voltage of the Surface Membrane},
  year = {1970},
  
  
}
No DOI on file for this study.

Quick Questions About This Study

Cell membranes maintain specific electrical voltages that act like switches controlling when cells divide. When this voltage becomes disrupted, cells can lose their normal growth controls and begin dividing uncontrollably, potentially leading to cancer development.
Ionic concentrations of sodium, potassium, and calcium across cell membranes create the electrical voltage that controls cell behavior. Changes in these ion levels can alter membrane voltage and trigger abnormal cell division patterns.
Dr. Cone's research was among the first to identify cell membrane voltage as a fundamental control mechanism for cell division, establishing the scientific foundation for understanding how external electrical fields might disrupt normal cellular growth patterns.
Membrane voltage changes can trigger DNA synthesis, the first step in cell division. When voltage becomes abnormal due to external influences like electromagnetic fields, cells may begin inappropriate DNA replication leading to uncontrolled growth.
Yes, external electromagnetic fields can alter the electrical voltage across cell membranes by affecting ion movement. This disruption can interfere with normal cellular controls that prevent excessive cell division and cancer development.