M.P.H's Pulse Motor Labs Ep:3 Sandbox

Hey, hey, hey. What's up? Here we go. It's Papa Bell and his lovely cat, Tigs. Want some loving right now. All right. So this is a six mag uh electromagnetic rotor and an 8 electromagnet stator. The eight on the outside are connected in series with the trigger strand waiting in case I want to take out the electromagnetic rotor. Okay, we pulse those eight coils with a signal generator. And I we I started at 400 hertz the last time I did this. I think we're going to start lower than that. or start at 400 and go down. We'll go down by 10. Okay. So, I'm what I'm going to do first. Well, our objective is to get a magnetic field off of as many of these coils as we can on the outside. The pressure is kind of an issue. There's like a could only get these three to light up last time. Okay. So, or actually there was four, a fourth one. Right now, it's kind of hard to differentiate the two, but I'm going to spin the the rotor and you'll see real quick how it goes. Okay, let's turn on some power. 12 volts. Remember that's through eight coils and some of them are pretty thin. I think 26 is my smallest one and the drive half of the coils. They're all Bif filer coils. So turn up to 20 20 volts. Give it another spin. I don't know if I'm going to start turning it down now. You get the drift, right? Going down by increments of 10. This is 300 hertz at 20 volts and uh 50 milliamps. Going to drop it some more. That's 200. We're up to 60 milliamps being drawn from the power supply here. All right, I'm going to spin it up again. All right. I want to find I don't know where it is right now. I need to find that. So, I'll be right back. All right. Is this clever device? [snorts] Oh, we are getting a north field on that coil. Now, let's stick it in this coil. Oh, it's a south field. Huh. This is what happens when you scavenge for parts. You know, in some instances, the coils are wrapped one way and direction. I mean, that's pretty cool. We got a north coil here and a south coil there. And that's all from 200 hertz and the signal generator and 20 volts and 60 milliamps. see if I can get this magnetic field to be strong enough to trigger. Uh it's just strong enough to act like a permanent magnet. Then the drive coil will bounce off of uh this coil with force. You know, that's what I'm trying to get or trying to make happen is to have these coils have a little bit of magnet magnetism to them so that when you know things are supposed to happen with the permanent magnet, they would happen with the coil. Pretty simple idea actually. Oh yeah. How about I turn up the juice a little bit? 20 volts might be a little low. Go up to 25 and give it another whirl. All right, I'm going to drop it to to 150. We're at 200 right now. All right, we're at 25. We're up to 80 milliamps. We haven't even br, you know, breached 100 milliamps yet. And we're at 25 volts. Awesome. That is so cool. I'm pretty sure nothing is happening right now, but the fact that we're getting magnetic field a north on this coil and a south on that coil. This just proving that there it's coming from the coils. It's not coming from the mag lab. It's not coming from the shaft, you know, it's coming directly from the coils. And I think that's awesome. If we can get that field to puff out, you know, just become a little bit off there. You know what I'm saying? Touch touch the rotor coils enough that something happens. You know, that's the objective right now. Got to make that field as big as we can. And since it's a stationary coil, we have to do it through pulsing and through voltage input. 30 volts 130 milliamps. See? And then when when when one of the induction coils passes the coils that have the strong field, they should generate transformer style real quick. They should definitely do that. And you know that makes it so you know it works. It's supposed to. Well, it should. You know what I mean? If you get the same transformer action here that I did on the other table where I'm generating, you know, 1,000 volts. Um, now it Yeah, it I know it's not 1,000 usable volts, but out of those thousand volts, you should be able to get something. Even at 10 milliamps, you should be able to get something, you know, and you don't need much. You really don't. You don't need much at all. But anyway, there's like several induction coils and there's one drive coil. And then when the drive coil passes the magnet, it should operate as a drive coil. But, you know, I don't I don't know exactly how far that field is reaching. I mean, this tool, it's a it's pretty primitive to figure that out. this tool. So, it's like you got to be right up in in the middle here. Let's turn down the hertz again. 100 hertz. Oh, it like stopped. That's weird. See, and then the the spacing I think it's where it has to be, but you know, some of the coils might be able to be a little closer. Because I mean the experiment in the other room, the coils are literally touching. So, and they have cores. At least the one does. It's a nice fat 32 gauge coil with an iron powder core. And it's uh I don't know. It only weighs about a pound and a half, but a pound and a half of 32 can generate over a,000 volts DC electricity. Uh maybe not usable volts because it's like 32 gauge and you you can't shuffle a bunch of current through 32 or you're going to blow a wire up. But there's a small amount of current and at thousand volts I mean a small amount of current can be pretty good. I'm just saying even if it's yeah dinky winky you know can pack a punch at the right voltage and and I mean it's exactly the same for amperage. You know, if you don't have at least some Yeah, there should be a way to convert uh like other than a cap like something that you don't have to be explained how it works. You know, you get it, it's in a box. Uh there's instructions and you set it up and it's good. That's what I'm talking about. Yeah. So cool. All right. So, as you can see, it's not working the way I want it to, but you do know how I want it to work now. So, and then like that transformer action when like a 32 or 30 30 gauge coil passes this coil right here they it should get a an energy pickup should pick up that coil. You know what I mean? But it's got to be close enough. I'm still just baffled how you get 1,000 volts off of, you know, just screwing around. Literally, I I had a 1 kilohz and 12 volts, I think. forgot how much voltage I had in there, but it wasn't that much. And then playing with the hertz, I got it to go above a th00and. And that that's that's when it it goes, you know, uh o overload at the highest setting, you know, that that's that. Cool. Cool. All right. Well, I'm going to get back to building the one that I'm going to be end up using. So, you got uh two 30 gauge coils and then I'm going to have two more over here. And they're going to be linked in series so that there's an an increase in voltage per coil. And then those two, this one over here and this one over here are going to be they're going to have 20 gauge and 30 gauge bifiler uh parallel coils. And that'll work really good with uh the you know the hexel system that I'm using all the sixes and everything. So, it'll go real good with this another six. So, that right there is probably where it's going to end up uh in the Utron, which I have tucked away for right now. All right. Well, thank you very much, ladies and gentlemen. Peace out. Have a wonderful day. Bye now.