Health

Understanding Oxygenation & Human Body Function (Part 1)

September 15, 2009

The Neothink Society · Health · September 2009

Health is built at the cellular level, and the single resource that decides whether a cell repairs itself or breaks down is oxygen. The Society treats this as foundational. Members who understand how oxygenated blood moves through the body gain direct control over the conditions that prevent disease and sustain a long, vital life.

The Cellular Lever Health is decided one cell at a time, and oxygen is the input that determines whether each cell rebuilds or fails.

The body is a physical composite of atoms and molecules that have lived in a contaminated environment for as long as the person has. It also carries the genetic code of generations before. From birth, the body absorbs the impurities of its surroundings at the molecular and cellular level.

The skin is the first filtration layer. A baker uses cheesecloth to keep dough from sticking to every surface it touches; the skin works the same way, the first barrier against harmful bacteria and toxins. Below the skin lies the cellular interior, where the internal organs perform the functions that keep the body alive. Those organs are also made of atoms and molecules that move in and out of their purpose across a lifetime. Skin cells die and flake off; the internal surfaces break down and reform at the cellular level continuously, so the body can keep circulating, supporting itself, and rejuvenating tissue. None of this happens without oxygenated blood flowing through every fiber of the body.

The blood vessels form a second filtration system with a dual purpose: they sustain life by circulating oxygen, and they deliver the tissue-building proteins the body needs to rebuild. They feed every organ the oxygen all living things require, and they route blood through the liver, where ingested and absorbed environmental toxins are removed. Under a microscope the vessels resemble a fishnet. As red blood cells pass through that net, tiny bubbles of oxygen form, the way air blown through a straw bubbles up in a glass of water. As those oxygen bubbles develop, move, and release within the circulatory system, they help propel the blood cells forward, driving circulation and the regeneration of the body's cells. Without adequate oxygen reaching the cells, blood does not pass through the filtration system properly, and the tissues, organs, and molecular structure grow susceptible to disease and begin to die.

The Filtration Net The blood vessels are a second filtration system, and circulation is what carries oxygen to the cells and clears toxins through the liver.

This is how toxins absorbed over a lifetime accumulate in the organs and tissues and become disease. Organs that never received adequate circulation to deliver oxygenated nutrients and clear toxins weaken and slow down, losing the capacity to perform the function they exist for, which is to sustain life. The body's slow aging and death proceed at the molecular level, one atom, one molecule, one tissue, and one organ at a time.

Then there is the biological coding. DNA is the genetic instruction set that defines the physical composite: strength, appearance, organ type and structure, and the overall disposition toward health. That disposition traces back through the family tree and the inherited traits carried within it.

Does inherited coding mean a person is destined to inherit disease? Some conditions, such as Down syndrome, are predisposed within familial DNA. But today, more than at any point in history, oxygenation gives the member a direct lever to sustain health and extend longevity. It is one of the most controllable factors for preventing and halting the disease process.

The strongest documented case comes from Dr. Otto Warburg, a Nobel Prize winner whose research established that most disease is driven by insufficient oxygen in the body. His findings showed that depriving a cell of 35 percent of its required oxygen for 48 hours makes it likely to turn cancerous. Warburg attributed the prevalence of cancer in modern society to widespread oxygen deprivation. The same deficiency contributes to a wide range of diseases affecting populations worldwide.

Oxygen is the single most controllable input to human health, because a cell starved of just 35 percent of its required oxygen for 48 hours turns toward cancer, which means most disease begins where circulation fails.

The Controllable Factor DNA sets the disposition, but oxygenation is the lever the individual can move every day to prevent and halt the disease process.

The conclusion is direct: oxygen is one of the most controllable inputs to long-term health. Part 2 examines how circulation and breathing can be improved to raise the amount of oxygen reaching the body's cells.

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Common Questions

What is cellular oxygenation? Cellular oxygenation is the delivery of oxygen, carried by the blood, to every cell in the body. At the cellular level oxygen decides whether a cell repairs and rebuilds itself or breaks down. When circulation delivers adequate oxygen, tissues regenerate; when it does not, the tissues, organs, and molecular structure grow susceptible to disease and begin to die.

How is oxygenation different from general fitness or eating well? Fitness and diet support overall health, but oxygenation is the specific input that reaches the cell and determines its survival. A person can be active and still carry oxygen-deprived tissue. Oxygenation is the factor that operates at the cellular level itself, which is where disease actually begins and where it can be prevented.

What did Dr. Otto Warburg discover about oxygen and disease? Otto Warburg, a Nobel Prize winner, established that most disease is driven by insufficient oxygen in the body. His research showed that depriving a cell of 35 percent of its required oxygen for 48 hours makes it likely to turn cancerous. Warburg attributed the prevalence of cancer in modern society to widespread oxygen deprivation.

How does oxygen actually reach the cells? The blood vessels form a filtration network that resembles a fishnet under a microscope. As red blood cells pass through it, tiny bubbles of oxygen form and release within the circulatory system, helping propel the blood forward and driving the regeneration of the body's cells. The same circulation routes blood through the liver, where absorbed environmental toxins are removed.

If disease runs in a family, does inherited DNA override oxygenation? DNA defines the physical composite and the overall disposition toward health, and some conditions are genuinely predisposed within familial DNA. Inherited disposition is not the same as inherited destiny. Oxygenation remains one of the most controllable factors a person has for sustaining health and extending longevity, regardless of inherited tendencies.

Why does oxygenation matter for longevity? Aging and death proceed at the molecular level, one atom, one molecule, one tissue, and one organ at a time, as organs that never received adequate circulation weaken and slow down. Because oxygen delivery is controllable, raising it directly slows that process. This makes oxygenation one of the few levers a person can move to prevent disease and extend a long, vital life.

Further Reading

  • Understanding Oxygenation & Human Body Function (Part 2). How circulation and breathing can be improved to raise the oxygen reaching the body's cells.
  • The Oxygen-Disease Link. The documented relationship between oxygen deprivation and the onset of disease.
  • Circulation and Cellular Health. How the blood vessels feed, rebuild, and detoxify the body.
  • Disease Prevention. The controllable inputs that keep the disease process from taking hold.
  • Health and Vitality. Where members apply cellular health knowledge to build a long, vital life.
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