Transcription
Okay, since so many people asked me about the field geometry depending on the shape of the magnet, the answer is that it remains unchanged. So, I'm actually gonna use this spherical magnet, a cylindrical magnet, a pyramidal magnet, or a conical magnet. Same thing. A disc magnet, a ring magnet, and let's actually first use this. It's actually really powerful. It's in 45 Gauss and neodymium-iron-boron. The geometry of the magnetic field, which of course is toroidal, and I'll actually roll the ball, actually zoom in a little bit, roll the ball underneath the glass here. The field geometry remains unchanged, the toroidal geometry that nature at the magnetic field. The only reason actually the ball was rolling there for a second is it was actually reacting to the metal underneath the table that's holding the brackets together a little bit. Once again, I could see that this is the North Pole of the magnet, this is the South Pole because of the blue phase shift disparity. So that was a cylindrical magnet. Now let's do a little conical or pyramidal shaped magnet. Let's put it like that, and I'll let the field burn down a little bit. There you go. Remains perfectly the same. Yeah, I can see more of this pole on it because the butt end of the pyramid is actually sticking up. With this little conical magnet, I have some really powerful pyramidal magnets, but they're so powerful that I can't get them near these other magnets that they stick together. It's basically impossible to get them apart. I know. Let's do a cubicle magnet and take a look here. Once again, before I tell you, can you actually see which side is the North Pole or the South Pole? This side, since it's a blue-shifted, is the South Pole. On this side over here to the right is the North Pole, isn't it neat? The holographic depth that you can get from a few microns, way, way, way thinner than a human hair.
Okay, so now let's use a disc magnet. Okay, let's place it on one pole first. Okay, there we go. Be kind of hard for me to, since it's so fun to set it up on its edge. I think I might be able to do it without knocking it over. And here you'll see that everything remains absolutely constant. Here I can tell this is the South Pole, once again. Okay, let's place that over there. Let's do a cylindrical magnet. Yeah, these are really powerful also. You can get most of these off of eBay. Basically, 100% of the world's neodymium-iron-boron magnets come from China. This one always makes really nice. There's also two specific geometries. If you actually create a magnet long enough where the pole is on either end, what happens is that the field geometry of the magnetic centrifugal divergence becomes strained. So you can make a cylinder magnet this big. There's also a reason why you see four huge monster magnets that I've got, one sitting on the floor right over there that I was into our monster magnet. Reason why it's only 2 inches thick. You actually strain the toroidal magnetic divergent flux such that everything follows pressure mediation. You actually can't extend the toroid out that big efficiently. And so really long magnets actually have oblate self-impelled fields. Like if this magnet were about four times as long, the divergent magnetic field would would not want to extend that far out from the other pole. And what will happen is it will actually curl in on itself as you'll actually end up with multiple planes of inertia. This one makes a really nice field. I always do these little three-quarter inch cylinder magnets. The cells needs to be rebuilt. I've only got like about 20 minutes on the cell and it's already scorched or scarred in quite sufficiently. There's that. What's or another? You know, I still have to do the ring magnet. Here you go. I place this right here for a second. See if I could zoom in. You can see. There we go. So you actually can't take really high-resolution shots of these magnetic fields because there's not much there. You're just looking at magneto holographic depths, which is very spectacular, especially when you hold one in your hands. But there's not a lot of high-resolution detail there to get. You can't make them more sensitive. This one is a really sensitive one. If you actually look closely, you'll actually see like a little ball of light on either pole. You can't kind of see it at that angle, but here you can see it really good. I explained that later in the fourth edition of the book. It's fascinating, actually. Precisely.
Now let's do, let's see if I could place this on a side. This does not want to hang on its side. And I actually have to prop it up with a rockier. And the other magnet wants to accelerate towards it. So that's the problem. Here we go. This is the reason you don't want to have multiple powerful magnets sitting on the same table at the same time. There we go. I'm just trying to place it on its edge so that you can see the field geometry remains a constant. That's the edge of the ring magnet. So it doesn't matter what the hell the shape of the magnet is. Almost place it flat down. This the cell's already see the scars. These circular scars. Ring magnets actually scored up. And the reason for that is the ring magnets, the exact same shape as the toroidal field of the magnetism itself. So the magnet is the same. Even though this is blocked off, it's still the same toroidal geometry. It causes a scoring or burning, if you will. Isn't that beautiful? Take a look at that. It looks like a, yeah, if you were here personally and at this in your hand, it would look like a holographic ball of light was floating atop a little black sea. Around, see the little burn mark we created right there? See that little scar? That black spot. This is also to the reason why there's a black spot at the center of a toroidal magnet that's burned in, but a white ball on a non-toroidal, like a cylinder magnet or a cube magnet. You can see I move it around. It's literally instantaneous. Like I said, there's nothing here but a fiftieth of a drop of liquid, two optically flat pieces of glass, and LED lights shooting inwards. There's nothing here. This is not a projection device. What's feeding this? This is just the same LEDs over here. Every reason I've got a blocked off is to keep the light, you know, from scorching my eyeballs. But yeah, so this is the question answered. I thought I made about a video like this on this topic a year, year and a half ago, but maybe I didn't. So it doesn't matter if you use a ball magnet or sphere magnet or a a ring magnet. Doesn't matter if you use a disc magnet. Doesn't matter if you use a cube magnet or a cylinder magnet or a pyramidal or conical magnet. The field geometry of the divergence center field of magnetic field is, of course, irreproachably the same. You can torque it and twist it a little bit by using large pyramidal magnets in creating a haulback array and a point, kind of like a garden fireman's hose where the conical nozzle forces all the water to a fine divergent flux point. Look at that holographic depth. Isn't that incredible? The only thing it's between this is mouse milk. It's literally called that. Mouse milk, which is that basically an old World War II version of WD-40. So it's like a dinosaur version of WD-40 and a ferrofluid. Any old sort of fear of looking good off of eBay to have a good flat pieces of glass and LED lighting. I got videos. Just do a search on YouTube on how to make one of these suckers. Now I'm really ruining this. So now you can actually see the scarification that's going on here. You see this black a ring of scarification? Also, do you see these bright points right here? How bright these points are right here? I explained that like about a year ago, but I'm also going to explain it in the fourth edition of my book. It would just take too long, too long here to do that. But the more sensitive the cell is, the more prone it is to damage. So I've only got three pieces of clear tape holding it together. So I can use, peel the tape apart, twist pieces of glass apart, wash it because ferrofluid is oil-based. Wash it with just like some Dove or Dawn soap water and then by hand. It's not dangerous or toxic. And then dry it off and clean it really good, blow the dust off and reapply the liquid. Look at that holography. It was amazing. You know, wish you could hold one of these in your hand. If you could hold one of these in your hand, you would really be awed because the camera does not do it justice. Girlfriend camera does not do it legit. Made a little further. Let's go straight top down. Focus. These cameras never want to focus on this because the details are kind of slightly fuzzy. Let's move it a little bit. You see how burned in scarred it is there? I place it right back on. Let me do that a couple times because people actually ask to see that. Lift it off the magnet, place it back on again. There you go. Folks might need a holography. And the important point of this video, which of course is to be mentioned, is it doesn't matter what shape the magnet is. The field geometry of the divergence center, if you love magnetic field, which is toroidal, ie doughnut shaped, is a constant. And this is, uh, this is the thing which gives us a magnitude and master everything in the universe from macro to micro, from subatomic to atomic, and anything larger because 100% of the universe measured in magnitude is due to magnetism and magnetism only. Centrifugal divergent magnetic field creates space. Space has no properties. It only has attributes. I repeat that. This is what Nikola Tesla said too. So I called Einstein the fuzzy heard crackpot and a lunatic. Space has no properties. Space is literally the aftereffect of a divergent magnetic field. That's all space is. It has no properties. Also, no field terminates in space. Space is not a terminal for any energy. Space is not an energy terminal. Never has, never will be. Thanks so much for watching and have a lovely day. Bye.