as there is a prevailing maximum concentration of coliform bacteria permanently in the large intestine, this organ therefore represents the greatest continuous stress on our immune system. This is where the HMs come into play: Because of the millions of free valences in the form of their bent ends, they can take over massive amounts of coliform bacteria in the large intestine, and excrete them harmlessly. 

 

These putrefactive bacteria or cell tissue destroyers are, as we know, the most effective agents for decomposition. Consequently, the large intestine also contains the most powerful component of our immune system. With the help of HMs, however, the enemies of life (a.k.a. coliform bacteria) produced there continuously can be absorbed in such a way that they are neutralized as soon as they are produced, and can then be quickly and harmlessly eliminated. If HMs are added to our digestive tract in the form of naturally pure oxygen-rich water, therefore, our large intestines will have significantly fewer putrefactive bacteria. As a result, the strongest part of our immune system, which is located there, is eased to such an extent that its newly-released resources are sent via the autonomic nervous system (controlled by the hypothalamus) to weak points where, for example, cancerous diseases - mainly virus-induced - are waiting urgently for immunizing support. 

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Conclusion: Polyphenols (especially in hops) are mostly found in the plant seeds or fruits, whereas saponins are mainly found in the roots (see above comparison of large intestine). Accordingly, the saponins (analogous to HMs in the large intestine) complement or relieve the polyphenols in their immunizing defense action. 

 

Transferring this roughly to human medicine, these PG triterpene saponins operate via glycogenolysis by influencing our glucose metabolism, as mentioned above, such that the glycogen formed in the process and stored as carbohydrate is counteracted antioxidatively. After all, all excess "old fat”(“metabolized temporary waste disposal") always claim the immunizing resources that are much more urgently needed elsewhere The above-mentioned PG triterpene saponins are therefore involved proactively in the intercellular recycling process of the human body and thus help to keep our defenses ready to carry out their actual protective function. In this context, we also need to mention the polyacetylenes contained in the PG root, which play a decisive role in neurobiological synapse transmission - and also therefore in physical fitness:

 

Because in permanently humid tropical soil, there are complete microcosms engaged in the struggle for life and death, insofar as the decomposition of dying cellular entities is progressing faster than the rate at which new microbes can be born or grown, the PG root contains the polyacetylenesmentioned earlier, with their unique electrical conductivity, assisting the new birth of cellular entities by means of billions of tiny electrical impulses. This singularity in nature is also beneficial to our mental performance, as the polyacetylenes function primarily in our brain as neurotransmitters, helping to facilitate synapse transmission. In this regard:

 

It should be firstly noted that polyacetylenes are themselves plant defense substances, protecting against fungi as well as many other plant pathogens. In particular, they occur in all three bonds (this will be explained in the next section). The most important representatives are: Panaxynol, Panaxydol, Falcarindiol. They are found in plants and lichens, mosses, sea sponges, marine algae, insects, tunicates, frogs - and also, minimally, in humans. In total, we know of more than two thousand polyacetylenes. Of these, about half can be found in the plant family Asteraceae, to which PG primarily belongs. In addition, they are also present in higher concentrations in the Apiaceae group (parsley, fennel, celery, carrots, etc.) apart from the Araliaceae group. Among these, the C17 polyethyne (panaxynol together with the epoxide variant panaxydol) stands out, with its exceptionally high bioactivity in the PG root, which is why it would be highly valuable for human medicinal purposes. 

 

Polyacetylene (also polyethyne) is a polymer of ethyne, which has 3 isomers (1. trans-polyethyne, 2. cis-polyethyne and the unstable cis-cisoid polyethyne), all of which are present in PG. Although polyethyne itself is an electrical insulator, it becomes conductive through the "doping” process. This process can be implemented in two ways: (A) for p-doping, foreign atoms are implanted, which act as electron acceptors, whereas (B) for n-doping electron donors are supplemented, which also ensures the "polar voltage balance” in the PG root at the same time. Polyethyne doping is carried out ultimately by conductive minerals present in soil (all elements are continuously ionized, usually, and therefore exposed to electrical voltage to varying degrees). Polyethyne was the first polymer in which electrical conductivity was established. However, because this doped (conductive) polyethyne reacts with oxygen in air, and thus loses its conductivity, this process can usually only take place in the PG root tract, which is as low in oxygen as possible (analogous to our relatively oxygen-poor blood, which is considered low in oxygen for polyethyne, since oxygen is usually bound by iron (hemoglobin) beforehand).

 

Since ginsenosides - and therefore also polyethyne - hardly get into our blood, let alone into our brains, due to lack of bioavailability, a particularly effective transmitter is required, which much like ©Immuxøl, takes the form of that powerful vitamin C. On the other hand, however, in order to carry out the necessary doping for conductivity, (Latin dotare = „provide“) only a very small amount of conductive additive is necessary (in comparison with the carrier material between 0.1 and 100 ppm). This additive is the conductive and, at the same time, immune-boosting mineral/metal zinc (the 13th most conductive metal, compared to iron, which is 22nd). The daily dose indicated on the ©Panaxeng box must not be exceeded, especially to avoid the risk of an electrical overload (in an unlikely case). 

 

At this point, we would like to recall how, in the case of ©Immuxøl, there is an amphoteric secondary property of riboflavin-5-phosphate sodium salt (in the form of RPN), discovered by the FEAT Foundation scientists, whereby RPN is able to bind the mineral zinc to itself (after being introduced into the brain by Vitamin C) in order to then transport it out through the cerebral cortex: RPS breaks down during metabolization into riboflavin and sodium phosphate. In this way, vitamin B2 (VB2) also reaches the brain without a barrier and, after being decoupled from trisodium phosphate ((C17H20N4NaO9P → C17H20N4O6 + Na3PO4) can also develop its "prophylactic" and convalescent effects.

 

The sodium phosphate thus decoupled from VB2 bonds with the zinc that has made its way into the brain with the help of VC as a transmitter thanks to the amphotheric secondary property achieved by its previous substitution (made possible by free valances!), and smuggles the latter back out through the brain as follows without causing harm, in the form of zinc phosphate -quantum satis- : C17H20N4NaO9P → C17H20N4O6 + Na3PO4 | Zn + Na3PO4 → 3Na + ZnPO4

 

In this way, the nutritional supplement known as ©Panaxeng features 5 unique characteristics at once:

 

1. PG polyethyne enters the brain with the help of VC, which also increases its overall bioavailability. 

2. Adding VC, VB2 and zinc also unquestionably increases immune defense.

3. The bioavailability of VB2 is significantly increased in combination with Na and P, and as RPS.

4. The amphotheric additional property of RPS allows zinc to be admitted harmlessly - even into the brain.

5. Due to the presence of zinc in the brain, the singular electrical conductivity of PG polyethyne comes into play in its synapse transmission assistance in the first place - firstly and singularly!