Follow-up Study: More Cell Energy Through Fields of Klein
In his follow-up study, Jonas Heisterkamp from Otto von Guericke University Magdeburg investigated whether Fields of Klein can increase cells’ energy production. To do so, he examined the mitochondria – the “power plants” of cells – using a cell model for human immune cells, under the guidance of Prof. Dr. Brigitte König.
Under exposure to Fields of Klein, mitochondrial activity was measured via the Bioenergetic Health Index (BHI) across different time periods (1h, 4h, 8h, 24h). This allowed the researcher to examine the effect of Fields of Klein on the mitochondrial bioenergetics of immune cells.
Worth Knowing
Mitochondria were examined using the Bioenergetic Health Index (BHI). This method uses chemical modulators that influence the respiratory chain. Measurements included, among others:
- the oxygen consumption rate (OCR, mitochondrial metabolism)
- ATP production
- maximal respiration
- spare respiratory capacity
- proton leak
The Bioenergetic Health Index provides information about the state of health of mitochondria. This assessment of mitochondrial bioenergetics can serve as a kind of early-warning system for the body, since many diseases are associated with mitochondrial dysfunction, and inflammatory processes in immune cells carry an increased energy demand. The BHI is therefore a biomarker that can provide insight into possible complaints or diseases by determining the metabolic potential of cells via their mitochondria.
THP-1 cells, which serve as a model for human immune cells, were used as target cells in the study – both as suspension cells and as PMA-differentiated cells.
as cell model
Fields of Klein
Better efficiency of the “cell power plants”
Increased mitochondrial activity
Results show that increased mitochondrial respiration and ATP production were already measurable after just 1 hour of stimulation. Cellular energy production (ATP) rose by 58% within the first hour. These results suggest that Fields of Klein can improve mitochondrial efficiency.
Mitochondria work more efficiently
Maximal respiration rose by 227%, and spare respiratory capacity by 448%. For both parameters, the higher the better.
Stabilisation of cell activity
After 24 hours, cell activity settled at a stable level, pointing to a long-term adaptation and regulation of the mitochondria.
Indication of a regulatory effect of Fields of Klein
Long-term adaptation of the mitochondria
After 4 hours of stimulation, values for spare respiratory capacity and ATP production dropped slightly, suggesting a metabolic adaptation. After 8 hours of stimulation, values stabilised, and after 24 hours a BHI of 1.51 was measured, suggesting a long-term regulation of cellular energy processes.
Measuring mitochondrial function with the BHI
What do maximal respiration and other terms mean?
The Bioenergetic Health Index (BHI) helps identify mitochondrial dysfunction, which is often associated with chronic disease or energy problems. The index is based on several parameters, including:
- Basal respiration: oxygen consumption for basic cell functions. It shows the current baseline state of cellular energy supply and is thus a measure of the amount of energy needed to maintain basic functions.
- ATP production: the efficiency of energy generation. ATP, short for adenosine triphosphate, is the universal energy currency of cells, serving as an energy store and carrier. It is a measure of mitochondrial effectiveness.
- Proton leak: energy losses through leaks in the mitochondrial membrane.
- Maximal respiration: the maximum possible oxygen consumption rate. It indicates the maximum output the cell power plants can deliver under their current metabolism. Low maximal respiration can indicate a reduced number of mitochondria or damage to the inner mitochondrial membrane or components of the respiratory chain. The rule: the higher the maximal respiration, the better.
- Spare respiratory capacity: the cells’ ability to respond to additional energy demands. If demand exceeds supply (e.g. through increased physical activity), the cell can draw on the mitochondria’s spare respiratory capacity. This ensures supply is maintained and an “energy crisis” is normally prevented. Here too: the higher the reserve capacity, the better.
- Non-mitochondrial respiration: processes that consume oxygen outside the mitochondria.
PMA-differentiated cells respond differently
Visible differences between cell types
PMA-differentiated cells responded to Fields of Klein with higher ATP production (+30% after 1 hour). Further research is needed to draw more precise conclusions. After 24 hours of stimulation, however, mitochondrial respiration decreased, which here too points to an adaptation to the magnetic field.
Results of the study at a glance
The results show that Fields of Klein can increase cellular energy production and lead to a long-term adaptation of the mitochondria. Together with the strongly increased maximal respiration, this results in a high spare respiratory capacity, suggesting that the maximum possible energy production of mitochondria can be significantly increased through the use of Fields of Klein. According to the researcher, the magnetic-field technology appears to stimulate the cells, resulting in increased cell activity. Further studies with larger cell populations are needed to better understand the long-term effects.
Is the study relevant to everyday life?
Our conclusion on the study
Many diseases today are associated with mitochondrial dysfunction. Particularly in areas of the body with high energy demand, such as muscle tissue or the nervous system, damaged “cell power plants” can lead to major problems. Potential fields of application could therefore lie in immune modulation, cell regeneration, and mitochondrial medicine:
The state of health of the “cell power plants” can reflect the state of health of the entire body. Improving their efficiency could therefore have a positive effect across all areas of health.
Improved mitochondrial performance – as suggested by the study – could support cells’ regenerative capacity and thus play an important role in chronic fatigue and signs of ageing.
The health of mitochondria affects numerous disease patterns, including neurodegenerative diseases such as Alzheimer’s, multiple sclerosis, and Parkinson’s, as well as metabolic syndrome (diabetes, obesity) or cardiovascular disease.