Counter-Rotating Device: Troubleshooting Resonance & Safety Relay Upgrade

Hello, ladies and gentlemen. What's up? It's Papa Bear, and welcome to the channel. So, that's 3.72 volts in the 5.5 volt parallel 20 farad. So, I think that's that's quite a nice chunk of you know, DC electricity right there. All right, let me take these all these off of here now and see if we can't get any more. All right. Let's turn this off so we don't waste the battery. All right. Now, I'm going to show you like uh the drawbacks and benefits uh the way it is set up currently. You saw that we are gathering voltage. It's happening at a pretty fast rate. It's not a lot of coil that we're doing it with, so it's pretty awesome. It's through proximity. Uh we are taking from a 28 gauge strand trifiler strand, and we have them in series connected to this bridge rectifier. Right here, through the bridge rectifier, they then go into two caps that are parallel with one another. We don't have it doing anything else at the current time. But, because they are connected all the coils through proximity to the cap bank. Listen to what happens. Okay, one. That's good. Hear the humming? And more humming, but it'll still work with the humming and then it will still charge those caps even though it's resonating. So, like it steps up each time you turn it on, it steps up resonation, like the hum gets stronger for each circuit. But, when I don't have the cap banks hooked up, I get two drives that'll work just fine, red and black usually, and then the green one will resonate, it will hum. And usually doesn't work very well, do anything good. But, uh this is three 12-V batteries uh saturating that 28-gauge uh strand that is in series and hooked to the bridge rectifier. So, what I'm getting at is that the super caps uh will fill up faster than if there was one or two. And there's three on and it's going to it's going to happen I don't know. I'd like to think it's semi-decent speed. So, we were at 3.7 3. Huh, I want to say we're going to be at 4.5. I'm about to stop it. So. All right. I'm going to have to be right back. I'm going to hook it up now. All right. So, not as much as I thought, but as it's creeping up towards the top. That's awesome right there. 4.07 volts. And we got to remember that 5.5 is the cap. Oh, that's so cool. That is so neat. Yes. And now let's run the black circuit on its own. We'll run the red circuit first. >> See, now these coils in the front here are tri-filer 26, 28, and 32 gauge coils, and I I really want to change it to 20 gauge. Maybe keep it tri-filer, but I don't have any 20 gauge left. So, I'm going to cannibalize some 20 gauge coils. And then have them be the drive. Maybe not have the bridge rectifier set up the way it is. All right, so this is red. This is the red one. Nice and smooth. Quiet. I'm going to do black one. See, now this one functions so much better. I wonder why that is. Mhm. So smooth. I mean, that the light in the back, if it if anything is wobbling or wiggling, it'll it'll bounce up and down. So cool. And you can tell that the shaft solid. I was I was still, you know, questioning it myself, you know, can it be balanced the way it is. There is like no vibration. Literally, like Okay, there's a little rumble right there. Yeah, there's a little bit. Not on the big table, really. Just the Just little wooden one that I built. But it's not like a wobble, really. It's just like it's It's It's natural resonant vibration. So, yeah, this is awesome. And uh I'm working on something for it. I'm going to show you. Be right back. All right, I got a latching relay, 12 volts, and infrared sensor or infrared receiver, MOSFET, and uh PCB board. Uh I want to I'm going to put together a power cut for my machine cuz I'm about to hook it up so it'll go fast. So, I I just want it to be you know, safety safety mechanism. So, there it is. Thank you very much. Peace out. Bye now.