Cellular Medicines
Cellular medicine views diseases as a consequence of chronic deficiency of vital micronutrients at the cellular level. The primary focus is on vitamin C, amino acids (lysine, proline), minerals, and antioxidants that are necessary for collagen synthesis and maintaining tissue integrity. When they are lacking, cells lose their ability to recover, the vascular wall weakens, and inflammation and compensatory pathological processes are triggered.
The author's position is that eliminating deficiencies at the cellular level allows not just to slow down, but to reverse the development of chronic diseases.
Hardening of the arteries, heart attack, stroke
Atherosclerosis is described as a consequence of damage to the vascular wall due to vitamin C deficiency and impaired collagen synthesis. In response to micro-damage, the body uses lipoproteins as "patches," which over time leads to plaque formation. Myocardial infarction and stroke are viewed not as sudden events, but as the culmination of a long process of structural degradation of blood vessels.
The key conclusion is that strengthening connective tissue and reducing oxidative stress can prevent vessel rupture and thrombosis.
Cholesterol and other risk factors
Cholesterol is presented not as a cause, but as a marker and participant in the body's compensatory response. It is necessary for the repair of damaged blood vessels, hormone synthesis, and cell membrane formation.
The focus on lowering cholesterol distracts from the true risk factors: vitamin deficiencies, chronic inflammation, oxidative stress, and mineral metabolism disorders. The authors emphasize that fighting numbers in tests without addressing cellular causes does not solve the problem of cardiovascular diseases.
High blood pressure
High blood pressure is viewed as an adaptive mechanism aimed at ensuring tissue blood supply in weakened and narrowed vessels.
Deficiency of vitamin C, magnesium, and other trace elements reduces the elasticity of the vascular wall, forcing the body to raise blood pressure.
Suppressing blood pressure with medications does not eliminate the root cause and may worsen organ nutrition. The key idea is that restoring vascular elasticity through cellular nutrition allows for normalizing blood pressure physiologically.
Cardiac insufficiency (loss of performance)
Decreased pumping function of the heart is viewed as a result of energy and structural depletion of the heart muscle.
Deficiency of B vitamins, magnesium, potassium, coenzyme Q10, and amino acids disrupts ATP production in the mitochondria of cardiomyocytes, weakens contractility, and accelerates myocardial fatigue. Against the backdrop of chronic deficiency, tissue recovery of the heart worsens, manifesting as decreased physical endurance and shortness of breath.
Cellular medicine emphasizes restoring energy metabolism rather than symptomatically reducing the load.
Irregular heartbeat (arrhythmia)
Arrhythmias are primarily associated with electrolyte imbalance and deficiencies of magnesium, potassium, and calcium, as well as a lack of B vitamins. These substances are necessary for stable transmission of electrical impulses in the myocardium.
In the presence of deficiencies, cell excitability increases, leading to rhythm disturbances and extrasystole. The authors emphasize that normalizing cellular mineral metabolism can eliminate the very basis of arrhythmias, rather than just suppressing them with antiarrhythmic drugs.
Diabetes and complications
Diabetes is viewed as a disease of impaired cellular glucose metabolism and chronic micronutrient deficiency.
Deficiency of chromium, magnesium, B vitamins, vitamin C, and antioxidants reduces cell sensitivity to insulin and increases oxidative stress. According to the authors, it is these deficiencies that underlie the vascular, nerve, and kidney complications of diabetes. Correction of cellular nutrition aims to improve glucose utilization and protect tissues from damage.
Other diseases
The book extends the principles of cellular medicine to a wide range of chronic diseases—from arthritis and osteoporosis to immune, oncological, and degenerative conditions.
The common mechanism is one: prolonged deficiency of micronutrients leads to impaired regeneration, chronic inflammation, and oxidative damage to cells. The authors conclude that the universal basis for prevention and recovery is complete cellular nutrition, rather than narrow symptomatic drug treatment.
