03/14/2025
WHAT THE BLOOD VISCOSITY IS LIKE, SO IS LIFE
If there is a magnesium deficiency, blood vessels become porous, like a sieve.
If there is a potassium deficiency in the body, the heart muscle starts to malfunction.
The human cardiovascular system is, by nature, a very reliable system.
And when we say that someone has bad blood vessels, what does that mean? What could have happened to them?
Blood vessels are like wires with a hole inside, through which blood flows. And it is very difficult to do anything with them. They can be corroded, so to speak, by certain properties of the blood, cut, torn, or compressed. Theoretically, nothing else can happen to them. Therefore, we must clearly understand why blood vessels rupture in the human body. To do this, we need to understand the mechanism by which blood moves through tissues.
The diameter of a vessel can range from large to very small. For example, the diameter of a cardiac vessel is equal to the diameter of a single red blood cell. This is a very, very small diameter. The cells of the heart are located in intercellular water. I always thought that tiny blood vessels reached the cells, as most people (both non-doctors and doctors) assume, believing that each cell receives a small, thin vessel.
Only later did it become clear that a capillary is a tube with its own corridors and labyrinths. Moreover, these corridors differ: each amino acid has its own separate corridor, meaning that the vessel wall is multilayered. As a vessel approaches an organ, it becomes a capillary, meaning it is reduced to a single-cell layer. Between these capillaries, the exchange of nutrients takes place.
Simply put, a red blood cell has four iron molecules (seats), each with one free bond. This bond is, figuratively speaking, like a free hand, which allows the iron to attract something. It attracts oxygen, which the red blood cell receives in the lungs. That is, four oxygen atoms sit on four seats and move through the circulatory system.
When they reach the heart, what happens?
Oxygen seeps through the vessel wall into the intercellular water and dissolves in it. Meanwhile, dissolved carbon dioxide is already present in the water and seeps through the same vessel wall, taking the place of oxygen. A red blood cell can carry four oxygen atoms. Once the exchange occurs, the red blood cell travels back to the lungs.
Upon reaching the lungs, carbon dioxide seeps into the tube and the air sac, where oxygen is present. The oxygen then attaches to the now-empty seats, and the blood starts circulating again. Blood has no more critical function than this. It has many functions, but the most essential is transporting oxygen.
Those who have seen blood under a dark-field microscope know that red blood cells glow, surrounded by a kind of aura—this is the oxygen attached to each iron molecule. This is the primary function of blood. A blood vessel does not begin anywhere and does not end anywhere. A vessel starts in the heart and ends in the heart. It is a closed system. But it is also entirely porous, especially at the capillary level.
What is in the blood?
Blood contains red blood cells and white blood cells.
White blood cells are single-celled organisms that perform specific functions. Essentially, a white blood cell is an intelligent cell. If bacteria appear in the heart, for example, the white blood cell will pe*****te the tissue through the vessel wall, travel through the water, reach the bacteria, and consume them. The result is pus, which we call rheumatic carditis, myocarditis, myocardial dystrophy, and so on.
The white blood cell will then decide where to go. If its enzymatic base is strong (meaning it can dissolve the bacteria), it will re-enter the blood vessel. If not, it will move directly into the lymphatic system and be expelled through the lymph nodes—via the nose, mouth, throat, sweat glands, or reproductive pathways.
What else is dissolved in the blood?
Blood contains dissolved nutrients. Meanwhile, the intestines contain a vast amount of proteins, both dissolved and undissolved. Proteins are broken down into 28 amino acids. The intestines have corridors, and blood vessels have corridors. These corridors align. As soon as amino acids dissolve, they pass into the blood one by one through these corridors.
So, the blood contains:
• 28 amino acids
• 15 minerals
Minerals cannot simply float freely in the blood; otherwise, they would form deposits of iron or copper. They, too, are bound with amino acids in complexes.
Additionally, blood contains:
• 12 vitamins, which can exist in free form
• Three primary fatty acids and several additional ones
• 3,000 enzymes
All of this is dissolved in the blood. Blood is the nutrient-rich medium from which cells extract vital substances.
Thus, the second function of blood is nutrition.
