ORMUS Life Cycle

"This little zero point frequency I showed you between the positron and the electron; if you follow that right up the electromagnetic spectrum, it agrees with the molecular frequency of hydrogen dioxide, or water. So there is an affinity for this material and water. That's why it is normally taken in water. When you come to understand that your body is, in fact, mainly water. That, literally, this material when you distill water it distills with the water as the oridide, the iridide, the ruthidide. Just like chlorine. And so if you distill water thinking you are getting high purity water, it goes with the water. And it literally changes the bond angles of the water. That one iridium atom controls 56 waters of hydration around itself. And all the bond angles of all 56 waters are altered when iridium is present. I haven't carefully studied the research work of people working with water but I strongly suspect that their water isn't completely pure and they are finding that the bond angles can be changed. There is something else besides H2O in the water."

[1:21:15] "Magnetic flux quantization and Josephson behavior in living systems". Now, what they're talking about here is the Josephson junction, and that's a superconducting switch. Basically when you understand these are mono-atoms, resonance coupled, but if the magnetic field applied is great enough to break that resonance coupling then it stops the superconductivity, and that's called a Josephson junction. They gave a Nobel Prize to Brian Josephson for discovering that. But it's actually enough external magnetic field and instead of flowing more current it actually cuts between the superconductors, and because these are monoatomic resonance coupled systems, any external field that breaks that resonance coupling stops the superconductivity. And they have found, in evaluating the superconductivity in living systems, that in fact, if you apply too much magnetic field it stops it. And that number is somewhere around 8-10 gauss. So, people who are working with these high magnets and all, it's too much magnetic field. If you're around power lines, it's too much magnetic field. Tremendous implications here if you really start thinking about the economics of it, what's involved and basically they have found superconductivity and they found that it acts like Josephson junctions and "its coherent excitation in the biological systems have already been proposed", and they go on to discuss their findings. And "the Josephson effects are seen, an anomalous, non-Ohmic current", in other words it has no voltage, there's no voltage at all, it's just pure amperage, and anyway, they said it's identical to the Josephson junction effect.

Okay, next paper. This article is "Physica Scripta, Volume 40, 1989, pages 786-791". This is, "Biological sensitivity to weak magnetic fields due to biologically superconducting Josephson junctions". Good old big brother, Biological Laboratories, U.S. Naval Air Development Center in Westminster, Pennsylvania, and this one, they actually, at the very introduction here, in the summary, it says, "Various species of organisms can detect weak magnetic fields of .1 to 5 gauss", and that is in fact the field that this responds to. I'll tell you a very interesting phenomena, when we make this white powder under controlled atmosphere and it's sitting there in a sealed tube, you can run your hand about 6 inches under the tube and the material flies around, in response to your hand 6 inches away, through the quartz tube. But if you take a magnet and put it under it nothing happens. But if you put your hand back under it, it flies around again. And because superconductivity is flowing hundreds of thousands of amps in response to the tiniest magnetic field, but when you get up to too big a magnetic field, it all stops. So it's like you step on it and it quits moving, but you let your foot off, it starts going again. It's alive. Is everybody following this? Are we all pretty close on this? Okay. Huh? Say it again? (audience question) Oh, when we make it to the monoatomic state we hydrogen reduce it, we oxidize it, hydrogen reduce it and then we anneal away the hydrogen. In the annealing with the hydrogen it goes snow white. When it's in that snow white state, under an inert gas atmosphere and we cool it down, you can actually take your hand and run it about 6 inches under the tube, you know a long distance away from it, and the material flies around inside the tube. And yet if you take a magnet and run it 6 inches under the tube, nothing happens. And yet you put the magnet down and put your hand back and it flies around again.

"Oh, certainly, I alluded to in the presentation. That these elements are not rare. Diamonds are rare, carbon is everywhere, but diamond and carbon are the same element. You know our analytical method looks for metals, not for elements. And so, the metals are rare because the conditions to make them metallic were very unusual, but the elements are everywhere. And, I say everywhere, they should be located in, ah .... well, if you talk to a nuclear physicist he can tell you exactly in the big bang, in the creation, how much of which elements should be here on Earth, and for some reason they don't know where the rhodium and iridium are. They just don't find it here on Earth. And so they assume it's out there in space someplace, in some meteorite, and they find this unusual amount of iridium at about 65 million years ago. Well the geology that this material is in is exactly 65 million years old. And so, coincidentally, it agrees with the volcanic activity about 65 million years ago. The elements are quite plentiful particularly in volcanic areas or volcanic soil."

"What they haven't realized is that they're out there in nature, that Mother Nature created them in the belly of the Earth, and that they are here in the monoatomic form in nature. They happen to be here in exactly the ratios they're supposed to be here. They happen to be here in exactly the amount that the nuclear physicists will tell you they should be here. They are here."