What is ionized oxygen?

Oxygen deficiency in the cell

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Oxygen deficiency is the primary cause of a large number of diseases and complaints, especially in old age. The reason for this in old age is simple. The reason for this is that from the age of 20, the blood flow rate decreases by 1% and with it the oxygen supply to the cell, which then produces less and less vital energy (adenosine triphosphate, ATP) in the mitochondria. A 70-year-old, for example, has 40% less blood flow than a 20-year-old and therefore 40% less oxygen supply to the cells. Oxygen is transported to the cell via the hemoglobin molecules. The more oxygen transporters you have and the more intact your blood circulation is, the fitter you generally are. Cyclists and marathon runners can achieve hemoglobin levels of up to 18 g/DL of blood. During chemotherapy, haemoglobin levels can drop to 10 g/DL and even lower. Oxygen is the staple food of our body. We often do not focus on it as much as we should, because it is available to us "just like that". But not all oxygen is the same.
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Is it your imagination?

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Certainly not. We now know that there is a connection between the degree of air purity, the number of negatively charged ions and human health. In nature, ions are mainly produced by lightning, waterfall effects and UV cosmic radiation. Mountain air at an altitude of 800 - 1500 m is the most ionized (approx. 8000 negatively charged O2 ions/cm³ air), followed by sea air (approx. 4000 O2 ions/cm³ air), then coniferous forests (approx. 3000 O2 ions/cm³ air), then country air (approx. 1200 O2 ions/cm³ air), followed by city air (approx. 200 O2 ions/cm³). In industrially polluted air, the number of naturally occurring ions decreases because the dirt particles stick to the ions and sink to the ground (see also ultra-high ionization).In last place is indoor air (approx. 20 to 40 O2 ions/cm³ of air). Anyone who spends the whole day in poorly ventilated rooms can imagine how this can affect health in the long term. Even if only tiny amounts of oxygen are present in ionized form, they still have an enormous biological effect. If we imagine that we breathe in and out 10,000 liters of air per day. Today, modern oxygen devices can produce 4-6 million negative oxygen ions per cm³ of air.
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How can we explain the importance of ions?

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The ionized oxygen enriched in pure air has a higher energy level than molecular oxygen, which is not electrically charged. This is comparatively bland and energy-less compared to an electrically charged oxygen ion, which can transmit the electrons originating from solar energy, among other things, to our biological systems due to its enormous, comparatively 100 times greater paramagnetic property. Without the activated oxygen component with electrons and photons, the active transport of oxygen is disrupted at all levels.
 

The cell becomes energetically weak, chronically depolarized and sick. In 1975, A. Lapitzky showed in his experiments that animals kept in stale air and on the verge of suffocation recovered quickly by adding negative oxygen ions. As soon as the air ionization was switched off, the asphyxiation symptoms reappeared (Rager, G.R. Problems d'ionisation et d'aero-ionization. Maloine s.a. Editeur, Paris 1975) On the other hand, A.L. Tschijewski (in Rager 1975) reported that animals that had to stay in ionless air died within 14 days despite the correct O2 content.
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Ionized oxygen is an oxygen atom with an excess electron (one more electron). This enrichment occurs in nature through lightning, sunlight, trees, waterfalls, ocean surf, etc. Unfortunately, in the age of industrialization, we have destroyed too many trees on earth as ion producers! Free radicals are, among other things, atoms that have one electron too few. They attack neutral (healthy) atoms and damage them by robbing the healthy atom of an electron. Now the ionized oxygen ions with their excess electron are naturally available to us to satisfy these free radicals. Now only so few ionized oxygen atoms should be consumed in the ambient air that there are still enough available for our cells. They protect us and our cells and provide us with the vital cellular energy ATP (adenosine triphosphate). However, fine dust, exhaust fumes, environmental toxins, cigarette smoke etc. are also free radicals that immediately bind the oxygen ions in the air and these are then no longer sufficiently available to us humans and mammals to supply our cells adequately.
We have a man-made oxygen ion deficiency! You can smell a rat!... (that's what we say in Upper Swabia ;-)) Our performance and organ functions (20 % of ATP) are declining and our cell regeneration / cell renewal (80 % of ATP) is no longer sufficient. Chronic illnesses are increasing dramatically worldwide with increasing environmental pollution. 700% more CO₂ emissions in 65 years. Source GEO 06/2019 Cells have a memory. If you regularly breathe in ATP-ionized stim, the following effect occurs. Because you now supply the cells with so much ionized singlet oxygen during use (2×6 million per cm³ of air), the new cells form more mitochondria. More mitochondria can produce more ATP. As a result, they are more efficient, can defend themselves better against attacking "diseases", regenerate, detoxify faster and their blood circulation increases enormously.