News segment and workshop footage, transcribed

News segment and workshop footage

Transcribed by the archive from the tape as posted to YouTube. The film.

Capitol Hill, on the news

[0:05] Future may run on hydrogen fuel. One such car was driven onto Capitol Hill today by an environmental group. The World Resources Institute wants hydrogen to get more attention in the president's clean air proposal. The group says hydrogen gas doesn't cause as much pollution as conventional fuels. But in this car, it doesn't get as much mileage either. About 75 miles per tank.

The laws of the land

[0:32] Then it says you have complied with the laws of the land. And so it's not what I say, it's what the international scientific community says that I am, okay? And here's some of the examples of some of the patents. Of course, you've got patents, right? No, we don't have any. Huh? I don't think we have any. Well, they... Here's some of the patents that's already gone into issuance. And whenever you comply with the laws of land, you get your little gold seals and all that stuff. And then it says you only control that technology internationally for a period of 17 plus years. And if you're smarter than them, you're doing it in the residence. All right, now once we found out the electrical polarization process, that we can split the water molecule economically, the next step was to do research to reduce the size of the unit down. smaller and smaller and smaller but you get higher gas. So we went to the development of the resin cavity technology and the resin cavity technology now we raise the voltage up point and it goes into the liquid to the gas ionization state.

Restrict the amps

[1:38] What that means is that you restrict the amp load and as you increase voltage potential still further you're starting to pluck electrons from the atoms which now the atoms that have missing electrons will take on electrical charges And even the electrons that are now being liberated from the process can now be interacting with the pulse frequency going into the resonant cavity. So what we're doing is now superimposing a physical impact on the resonant cavity technology. And that aids us in the ability to produce the hydrogen gas even at faster yields. And we saw a lot of very interesting things that took place that once you adjust the voltage in reference to its pulse frequency, we would hit resonance. We would start to produce hydrogen gas at an astronomical rate. Now we found out that once you hit resonance, you could allow the pulse frequency to continue for a period of 5 seconds, for example, and shut off the voltage field, and gas being generated was being generated for 94 seconds.

[2:35] So in essence, what was happening by electrically charging the water bath and hitting it into resonance, When you divide 5 seconds into 94 seconds, then we were generating hydrogen gas 19 times more on the power output stage and the input stage. So what we're doing is we're finding very economical ways to reduce the hydrogen gas and at the same time reduce the fuel cell down to a minimum level. The second lawyer went in and said at least I could crack his smile. The next lawyer went in and came out and he was all put out and he slammed his paperwork on the desk and he says, well I hope you got something interesting to demonstrate to them. He said, that kind of shut me, you know, stopped me short. And so we went in and I told the Lord, I said, Lord, let them realize what we have and let them come out of their chairs. And within five minutes of the prison, they were out of their chairs. And then one guy ran down and put his hand on the fuel cell and there was a cold process and he yelled out, that's a cold process.

[3:29] Cold process means you're not consuming a great deal of power. And he looked around and he said, well, that's a cold process. And as a result, that's why they do the patents and show their voltage can actually disassociate the walk-in. Now, hydrogen gas. Now, we know styrometrics, but we don't know what you're talking about adjusting the burn of hydrogen gas. I said, well, I said, if you have a flash tube here, and you fill this up with hydrogen and amine gases, and you ignite it at one end, then that fuel mixture will burn, and it'll burn down this tube around 325 centimeters per second. If I put natural gas and amine air in it, then that burns around 47 centimeters per second. So it's quite obvious that if you take the non-combustible gases and add it to, mix it with the hydrogen, oxygen gases, you now can adjust the burn rate of hydrogen and gas to co-equal that of the fossil fuels. So as a result, we've got our patents on the ability of bringing hydrogen safer than natural gas.

[4:24] Now, that's why we can take positive velocity, the fast velocity of burn rate of hydrogen from 325 centimeters per second, and we now can adjust it down to co-equal gasoline, natural gas, diesel fuel, or even take it and round to lower burning paper. Now, we're doing this under the law of economics, right? That was the number one interfacing technology that gave us the ability to retrofit the fuel cell to any existing energy consuming device. Now that means that if you're hooking up to a car engine you won't have to change the design of the engine in order to use hydrogen as a source. Now here is how do you run an internal combustion engine as we showed on the video tape. We're running a standard combustion engine without engine change and running it off of hydrogen and we're not even changing the spark plugs.

Three functions of the engine

[5:16] As an engineer, you would look at the internal combustion engine in three ways. Number one, it's a mechanical drag device, right? Secondly, is it not a pump? It pumps the air in from the carburetor and it shoves the gases out the tailpipe. And thirdly, the internal combustion engine is a manufacturer of non-combustible gases. We're now using The gases that no longer can support the burning process, the exhaust gases feed them back. We need to mix it in with an ejector system fuel cell. We now can adjust the burn rate of the hydrogen gas to enter the fossil fuel areas and therefore run a conventional gasoline engine and run off of hydrogen. Will you call me back later? Oh yeah, sure. Move it right ahead. Don't over-engineer now.

In the workshop

[6:01] Uh, you'll probably be about the latter part of September gone, maybe in October. Well, that's generally when I'll sign up for the news releases. Okay. Thanks for your call. Bye-bye.

[6:20] There's nothing in that. Yeah, we need to fill up these fuel cells. We'll need three gallons, really.

[6:45] And, you know, we ought to get a video with using this unit the first time to start it, you know what I mean? Put the whole thing together in the other way. Yeah, I'm thinking about trying to come up with a good format.

The basic lab unit

[7:15] This is just a basic lab unit. It's what we use to do the patent office with. Is this the first one you used? This is the first one. The one you had in there was the second unit of this. Did you get the packing with this one? Mm-hmm. That will mean we've got two more of those. So you're going to protect that one, ain't you? Yeah. Good baby. Portale.

[7:43] You look at that, you're looking at, see the gap in between the tubular structures? About 1 16th of an inch spacing. Now that has, that fuel cell has about 30, about 30 to 30, no 38 hours of operation on it.

[8:01] Does it seem to be a particular time? No. Or does the metal wear thinner? No, no. That's what I'm saying. Remember yesterday when, uh, When I say that the under-actualized certification testing, the metal is .00... Decomposition of the material is .0001 per year. It's virtually non-destructible. Matter of fact, when you fold it apart, you can still see the original markings from the manufacturers on the stainless steel.

Say when, Stan

[8:33] Now, Jimmy... Okay, say when, Stan.

[8:42] exposed to this field. The stainless steel does not chemically interreact. It's totally inert to liberate the hydrogen. Now it's a non-chemical environment using now the physical force of voltage to disassociate the water molecule. So I'm going to turn it on, and I'm going to use this very low, and I'm barely going to adjust the voltage up. I want you to watch the... I'm just going to start forming the bubbles across the molten zones. Murphy's Law got into it. Now, I'm keeping it very close because I want you to see the reaction. I want you to look in here. You see the bubbles form? All right, now, I want to keep the power supply exactly constant, and the only thing I'm going to change is the physical parameters of the voltage zones, and I should be able to experience an increase in gas production. Now, electrolysis, you could care less where those electrodes are at based on the flow of amps going into the system.

[9:31] Now, using the electric loop function of water, tell me if you see the gas increasing. Is it increasing? All right, now I'm going to move it back and tell me if it decreases.

Voltage as a physical force

[9:45] Therefore, voltage is acting as a physical force onto the water molecule. Now, I'm keeping it very low so you can see it because we're not consuming any appreciable electrical energy in the process. Voltage is a non-consumed force, all right? When this thing, this thing would become cherry red hot. Now, if you try to sock in 2500 to 3500 amps in the voltage zones, 1 16th of an inch across, I will assure you that thing would melt down, would it not? Alright, even if I put 100 amps or 200 amps into this system, the spacing between those plates, it would arc out, right? Alright, now, what I'm going to have Charlie do, as I mentioned, it's deregulated, I'm using a false voltage frequency generator, and I'm now going to Charlie turn it on, and let's see really how much energy does it really take to split the water molecule.

[10:39] It'll turn down, it'll start slow, and you can watch the hands from the bowls, but it's starting to turn a lot slower. Watch the bubbles. Watch the bubbles here. This is ordinary half the water. Okay, now they're starting. All right, through the bubble. Now we're pulling.

[10:56] with your hands and actually it's starting you can see the water molecule in the middle of the ring just like i said okay now i'll just now i'll take it up let's see if you go ahead and increase the rate of the hydrogen gas to be generated now once your motors come down over here you've got an after water generator on the start of the road i can show you i can produce seven pounds of hydrogen gas per minute

[11:24] So, I want you to put your hands on here and tell me if that feels all right.

[11:29] Alright, I want you to look at the needle here. Oh, how much gold? That's around two inches, about 10 miles per hour. Now, I want you to watch this gauge. This gauge is a thousand phrases, it's not a thousand phrases, okay? I want you to watch the movement of the needle, okay? We're going to demonstrate to you what's all about. We're going to go to a very lucky area to hold this complexion.

[11:55] All right, now, slow down, turn down the voltage and tell me it goes down. Does the needle rate slow down? It's moving at a slower rate, all right? All right, now, look at the needle coming. It's still moving at a constant rate. Well, it's just moving at a constant rate. All right, put your hands on it and tell me it's still cold or hot. How many pounds of hyphen are there right now?

A runway?

[12:25] Alright, when you talk about, do you have a runway?

[12:54] process is a chemical reaction process and you cannot have an instantaneous response to that. It would take an extremely long period of time. Now when you burn hydrogen and oxygen you can have a smell on the base

A very clean burning fuel

[13:21] Very clean burning fuel. You'll see a small portion of the flame. That's the non-combustible gas that's been released from the water. Remember that?

[13:38] I want you to note that when the gas is burning, it's taking on the same characteristics as natural gas. Remember, I'm talking about ordinary natural water.

[13:58] I'm keeping it low. Why is he burning it instead of exploding it? Right, we are burning it. That's what happened in our experiment. Right. You mean you go with this port? That's where I got it from. All right, now you see that part of the plant? Yeah. All right, now that part there, you're seeing the first plant. It gives you a burning order of natural water.