Experimental Series: Fields of Klein Generate Bioelectric Impulses
How permanent static magnetic fields act on the human body is still not fully understood today. One accepted hypothesis is that the movement of blood through a magnetic field could generate a micro electrical voltage acting on cells, similar to what is described in classical biophysics. This micro-voltage could trigger bioelectric impulses in the body that play a role in regulating circulation, cell energy, and regenerative processes.
Dr. med. Dr. Ing. Jordan M. Petrow of the Academy for Science and Research in Rostock investigated this hypothesis, examining whether Fields of Klein induce electrical micro-voltages in the smallest blood vessels (capillaries) and can trigger the body’s own impulses.
Worth Knowing
To examine the interaction between Fields of Klein and capillaries, a capillary loop was recreated. This was perfused with different fluids: physiological saline solution (0.9% NaCl), double-distilled water (electrically non-conductive), and fresh blood (heparinised to prevent clotting). Measurements were taken using an ECG device to capture even the smallest electrical voltages in the system. The movement of the capillaries was simulated by mounting the Fields of Klein on a motorised rotating disc that moved at various speeds, mimicking the natural pulsation of blood caused by the heartbeat.
Experimental Series
Capillary Loop
Fields of Klein
ECG Device
Fields of Klein trigger an ECG signal
Measurable induction voltage in blood
The experimental series was able to show that Fields of Klein do generate measurable induction voltages – with varying intensity depending on the fluid flowing through:
1. Double-distilled water showed no measurable voltage, as it is electrically non-conductive.
2. Physiological saline solution showed a slight induction voltage, but clearly below physiologically relevant levels.
3. Heparinised blood showed the strongest induction response, with voltages in the range of several millivolts – comparable to natural bioelectric signals in the body (e.g. an ECG signal).
Stronger effect at higher speed
Only motion produces the effect
The study found that Fields of Klein generate measurable electrical micro-voltages in the recreated capillaries. Interestingly, induction voltage increased with the speed of movement of the magnetic fields, consistent with the classical law of induction. This means that the natural flow of blood across Fields of Klein generates dynamic electrical activity, which could have an effect on cells and tissue.
Nature as a model
How do magnetic fields act on the body?
Vital electrical processes are constantly taking place in the cells of our body. For example, information is transmitted electrically along nerve cells, and the heart would not beat without the body’s own “electrical energy.”
If the body’s bioelectric currents are disrupted, however, cells can no longer carry out their normal functions optimally. This is where treatment with magnetic fields comes in. Yet despite a long history of use, it is still not fully understood how magnets influence the body. It is currently believed that (electro-)magnetic fields exert their effect at the cellular level, potentially influencing the body’s own regulatory mechanisms for self-healing.
Biophysical laws suggest that static magnetic fields generate micro-voltages as soon as their magnetic field meets the body. This micro-voltage – according to the theory – interacts with the body’s conductive structures and may in this way increase the electrical activity of cells. Through this interaction, cells could better carry out their functions – those based on electrical activity. The result: improved cell metabolism, stronger regeneration, and support for the body’s self-healing powers.
The fascinating model for this mechanism is the Earth’s geomagnetic field, also known as the Earth’s magnetic field. This natural magnetic field constantly surrounds us and creates stable environmental conditions for plants, animals, and humans alike. It protects us, for example, from harmful solar radiation as well as cosmic radiation.
The geomagnetic field also appears to influence other aspects of life on Earth. Studies suggest that plants, animals, and humans can respond to changes in the static magnetic field. In particular, a hypomagnetic field – that is, a diminishing or shielded Earth magnetic field – is currently being studied more closely. Research suggests that changes to the magnetic field could affect cell metabolism, and above all the “power plants” of the cell, the mitochondria. In this way, the Earth’s magnetic field could, among other things, influence biological rhythms such as the sleep-wake cycle and even the function of our nervous system.¹⁻⁷ Nature thus shows us that the power of magnetic fields is deeply rooted in evolution and could play an important role in our health balance.
Several millivolts measurable
Induction voltage comparable to ECG signals
In capillaries perfused with blood, the induced micro-voltages were significantly higher than with saline solution, suggesting a stronger interaction between the magnetic field and biological fluids – such as blood, lymph, or cerebrospinal fluid. Voltage induction here reached several millivolts. These results are notable, as they showed voltage levels comparable to natural bioelectric signals in the body, such as the potential changes measured with an ECG.
Results of the experimental series at a glance
The experimental series provides an initial scientific indication that Fields of Klein can generate electrical impulses within the capillary system. These induced micro-voltages could play a central role in the physiological effects of this technology.
The results suggest that Fields of Klein may have a regulatory influence on bioelectric processes in the body. Future research could now clarify how these effects translate into clinical practice – particularly in pain therapy, circulation support, and cell regeneration.
Is the experimental series relevant to everyday life?
Our conclusion on the experimental series
The induced micro-voltages are not only measurable, but reach levels that could have biological relevance – particularly for circulation, cell metabolism, and regenerative capacity:
Microcirculation could be influenced by the electrical impulses, which can improve the supply of oxygen and nutrients to cells.
Mitochondrial activity could be supported by the electrical stimulation, increasing energy production in cells. This could boost cell activity and improve regenerative capacity.
The results could offer an explanation for why some users notice the effect immediately – within seconds of use.
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