Results and effects
In general, all diseases related to an energetic weakness and/or limitations of the function of a body organ can be treated.
Therefore all medical fields can take advantage of this treatment method. In addition to chronic pain syndromes, this method is also suited for treating economically relevant diseases, like diabetes with or without complications, disorders of the lipometabolism, chronic liver diseases, auto-immune disease and allergies. Postulating, that an energy transfer in any form takes place between the blood cells and the organ cells, with the latter being subjected to regeneration, there are no limits for this therapy.
At the same time, the gap between complementary and school medicine is closed through laboratory-chemically provable effects.
Indications:
- Diabetes mellitus
- Chronic liver diseases
- Lpiometabolism disorders
- Chronic pain syndromes
- Rheumatoid arthritis
- Polyneuropathies
- Chronic inflammatory intestinal diseases
- Fibromyalgia
- Hypertension
- Tinnitus
- Maculopathies
- MS
- Burn-out syndrome
- Allergies and eczema
General effects
- Significant improvement of the general performance
- Improved sleep and vigilance
- Positive impact on the general mood
- Reduced medication
Special effects
- Optimisation of the diabetic metabolism
- Statine-comparable impact on hypercholesteremia
- Substantial decrease of pathologically increased liver values
- Reduction of shift frequency of chronic inflammators intestinal diseases
- Improved general condition and mobility of MS patients
- Positive impact on pain syndromes resistant to therapy
- Tendency of positive impacts on tinnitus
- Reduction of anti-hypertensive medication for aggravated hypertension
- Tendency of positive impacts on maculopathia

ATP increase under laser irradiation (632nm) of a HeLa cell-culture

Mitochondria of human lymphocytes before
(top) and after
(bottom) irradiation with a He-Ne laser of 632nm.
Further biological effects:
- Stimulation of the immune response, unspecifically and specifically,
- Decrease of the CRP (C-reactive protein),
- Increase of the immunoglobulin IgG, IgA and IgM,
- Reduction of circulation damaging immune complexes,
- Increase of the phagocytic activity of the macrophages,
- Stimulation of blood formation,
- Improvement of the erythrocytes’ plasticity,
- Improvement of the antioxydative enzyme system, stabilisation of the lipid oxydase in the cell membranes,
- Stimulation of DNA repair mechanisms,
- General antitoxic effect,
- Analgesia, improved micro-circulation,
- Antiallergic, arrhythmic, antibacterial, spasmolytic and anti-inflammatory effect,
- Improved effect of antibiotics,
- Reduction of side-effects during chemotherapy and radiation (as secondary therapy),
- Improved lymphocyte aggregation,
- Improvement of the blood rheology with anti-thrombocytic effects,
- Reduction of thrombocyte aggregation,
- Improved blood viscosity,
- Increased fibinolysis,
- Opening of micro-capillars and promotion of collateral formation,
- Improvement of tissue tropics,
- Normalisation of nervous irritability through stabilisation of cell membranes,
- Increased oxygen absorption and saturation of the blood,
- Improvement of the artery-venous oxygen balance,
- On the cellular level, improvement of the mitochondrial metabolism with development of “Giant” Mitochondria,
- Increased activity of the respiratory chain,
- Increased ATP production,
- Stabilisation of the cell membranes,
- Increased function of the hypothalamus and the limbic system.
How can these multiple positive effects be explained?
Currently, the reason for the manifold effects is supposed to be found in the respiratory chain of the mitochondria. The redux potential plays a decisive role for these effects. Cells with a low (acetous) pH value and hypoxia react better than normal cells. They absorb the light quants and thus stimulate the strongly reduced cell metabolism, finally leading to a stabilisation of the cell membrane by increasing the ATP synthesis.








