MES Livestream 139: BeneficenceTV gives updates on his radiant energy research by @mes on 3Speak
Ben Factor from BeneficenceTV @beneficencetv joins the show again to give updates on his ongoing research and experiments into wireless radiant energy. August 22, 2026 at 1 PM PDT BeneficenceTV Fre...
Tags: #physics #electromagnetism #experiment #beneficencetv #technology #aether #deepdives #freeenergy #antigravity
Yeah, all right, so we're recording, and yeah, let's power through this notes right here. And, yeah, so Ben Factor from Beneficense TV is back on the show. All right, how are you, and, yeah, how are you? I'm just going to type the people. Can y'all hear us? So, so forth, I don't know who else in the chat. We have three people. Can y'all hear us? So I'm doing well, and I can hear you on my end. Can everybody hear me? Yeah, it should be good. I'll have the chat open just in case anybody asks, and so on. But yeah, so, yeah, I get to have you back on the show, and what I'm going to do is, so I'm going to do the usual intro. I didn't have a time to make a trailer, even the time I'll just use the old one, just super busy, mainly with the clot, okay. Rotary Matrix says, yes, audio is good, okay, epic stuff. And let me know if it's too loud or too low and so on, so I can adjust it. Okay, then Drew Truscott is yippers, okay, we have, now, he's also an experimenter and so on. Yeah, we can actually cover his stuff. I'll open up your stuff a little later if we have some time in the chat. He has some, some designs, and he was working also with AI to get some free energy jazz. All right, so MES livestream 139, Beneficence TV gives updates on his radiant energy research. So Ben Factor from Beneficence TV joins the show again to give updates on his ongoing research and experiments into wireless radiant energy. And I think we have, I want to make... Actually, I'll do that later, future guests. Oh, yeah, you're going to join the 9 -11 livestream, right? Yeah, the, on September 11th. Yes, I definitely want to join that, because I think some of my research plays right into Judy's wheelhouse and John Hutchinson. Yeah, yeah, so what's interesting is, yeah, so we'll have Dr. Judy Wood's going to be there. Andrew Johnson's going to be there. Keith, aka Conspiracy Surrealist, Chris Schach, Mystic Bizarre, KJ French, 9-11 to go, oh, I should put you as well, yeah. and then also possibly Richard Hall, like, you know Richard Hall? I do not know Richard Hall, who is he? He's the, he's the UK guy that's currently, like, he did a documentary about the Ariana Grande 2017, like, a false flag, and then he got sued by, like, BBC, no, BBC, I mean, by the families of the alleged event, and then basically he had to, like, he had to go in bankruptcy, and I think he's like, at Sell's House and on. Just for making a documentary. Yeah, I mean, there's smear campaigns that they'll put out. There's all sorts of shady stuff that they'll do if they don't want information out there other than just straight up attacking you. There's a whole plethora. There's a whole playbook, basically. Yeah, I'm going to just quickly add this in here. And, uh, and, and, and, and, and, and, and factor, I'm going to put, uh, Richard Hall and, and, Yeah, so Ben Factor. Ben Factor. All right, put that there. Yeah, so you'll be joining it. They'll be pretty epic set up there. Yeah, I'll be joining the stream. And the other part, like, do you know the guy from Future Guest, Ty, from the Disclosure Project? He may join an MES livestream soon, but now he's ignoring my chat again. You know, do you know that the Total Disclosure Project on YouTube? I'm not familiar with it. Alright, all right, all right, anyways, we'll skip over to that. And also, I want to, in case John Hudson's listening in, yeah, so he had emergency, like, early this week, and then he just had surgery, I think, last night. So hopefully Captain John is doing well. So I'll have it in a round of notes. We'll come to that later when we have some time, or some downtime. So, yeah, so anyways, so how are you? And I put some notes in here. I'm going to just send this to the audience they want to cover it, but, yeah. So you can take it from here if you want to go ahead and get the livestream yesterday as well. I put a link to that. That's pretty interesting. Yes, I appreciate it. Yeah, we had an interactive mini lab last night, simply because, like, I like to try to do as much of my research live on camera to document it along with kind of showing everybody the discovery process in real time. I think, you know, the process is important to document as well. It gets people excited and, you know, enthusiastic about, you know, potentially doing their own experiments. So we had a lot of positive results. I had some predictions, and all of them were completely 100%. they came true. So we found a resonant pulsed waveform in my new circuit, the impulse driver, a circuit that I've been designing myself, which is supposed to be kind of like an upgrade to the jewel thief, in the sense that it has more versatility. The jewel thief circuit is a self-osolating circuit, right? It's a self-feedback loop. So it kind of like just... sits into a natural resonant frequency based on the length of the coil. So I wanted a little bit more versatility. I wanted to be able to change the frequency, because, you know, if you studied Malcolm Bendel's work with plasmoids, cavitation creates the structured plasma, and then the frequency is used to manipulate that plasma. So we want to be able to manipulate the system in a more... you know, versatile way. So I've been developing the impulse driver, which utilizes a pulse width modulator, and you can input a specific frequency. And it was my prediction that at certain frequencies, we would find those three defining characteristics of the resident pulse waveform found in the previous circuit. And this is something we found. We found the three defining characteristics at certain frequencies, and we found even more interesting things. We probed the system with a grounding probe this time, instead of just floating it, and even the pulse was very unique at specific frequencies. It just displayed this very unique symmetry. almost like it was reflecting off of itself in a very even way, but when you zoom in, there's a lot of chaos. These are characteristics of the resident pulse waveform that we did find in another system. So it's not proof that the synthetic AC model is 100% accurate, but it is evidence to support the model further. And as we do these experiments and run them through the model, every time the model has proved itself to be a useful tool in explaining what the hell is going on with these coils. And if the model pans out, then we've successfully demystified the rodent coil, in my opinion. you know, for years, the rodent coil has been this producer of unique phenomenon and kind of connected to the esoteric teachings of vortex -based math, but, you know, as an electrical engineer, it's been a real challenge to try to translate those, you know, principles of BBM into standard engineering practices. So that's kind of the bridge that we're trying to, you know, close here. or the gap that we're trying to close, the bridge that we're trying to provide between the esoteric and, you know, the mainstream engineering practices. Yeah, for sure. And, yeah, also, Chris Shack is in the chat. Hi, Chris. But, yeah, I won't say that. But, yeah, so I missed this part in your live stream. Do you, or you want to walk us through exactly what's going on here, because you have that pulsed waveform. and you're zooming in live. I do like the setup that you have, literally, and you have the phone camera right there on it. That's great stuff. Yeah, it was kind of like a makeshift, but it worked, I guess, in capturing what was necessary in documenting the RPW. And, like, you can see, if you compare it to the previous video that we've went over the classic RPW from the Lightning Thief, that video, has far fewer nested harmonics. Look at all of these, there's not just tertiary and fourth, there's like fifth and sixth, and, you know, all these different nested harmonics are all crammed into that, but you pause it, and it's just one signal, reflecting off of itself in a very chaotic manner, and then you zoom out. and you get this kind of pattern emerging as a smooth sine wave or a somewhat smooth sine wave, right? And that smooth up and down motion is indication to me that the energy transfer is happening efficiently. because we've hooked up different kinds of coils to the same system, and we've gotten, like, we've hooked up a classic pancake coil to the same circuit, and it showed some of the same characteristics, but it was a bell -shaped curve, and this system with a pancake coil is far less efficient than the vortex coil. indicating that that misshapen sine wave, that bell -shaped curve, is indication of less efficiency in the system. So what I was doing was I was trying to find the frequencies that produced the smoothest sine wave on the macro, while also producing the largest right... side band on the microscale. So if we go back to the three defining characteristics of the RPW, the resident pulsed waveform, the first defining characteristic is on the normal scale, the default scale of the oscilloscope, we'll see all these nested harmonics like you see now. This is actually a little bit more zoomed into the microscale. But as we zoom into the microscale, we'll see that zero point convergence, where it's kind of like a pinch point and huge energetic sideband activity on either side of that pinch point. And if we zoom all the way out, we'll see it kind of like a rectify into a smooth sine wave. And those are the three defining characteristics. Now, there is a fourth characteristic, and that is no matter where you probe the system with a floating probe, you'll find those three defining characteristics. And that's indication to me that there's some kind of unity going on between all the components in the system. There's a complete synergy between the forward pulse and the backward recovery pulse in a way that most systems just can't handle because the geometry of their coil is inefficient. And it's not producing that field cavitation effect that I believe is happening. So you see all that thick. So the main signal is just what's in the middle. Those thick edges, those are all the harmonics that are bouncing off of that single signal. That's amplification, and it's massive. I have a very high-speed oscilloscope. It's one of the most expensive you can buy on Amazon, and it was having trouble catching up with this kind of signal. It was just going so chaotic. But it's very unique in the way that it kind of rectifies into that smooth sine wave. At specific frequencies, though, it's kind of like misshapen and flat. Like, there's not enough, like, indicating there are certain nodes that you can get maximum resonance, right, or harmonics of that resonant frequency. So... It's very interesting. We have a lot more to document regarding the system because of its versatility. We can change the duty cycle. We can change the frequency. We can even add dual frequencies. The whole point of this is to study these waveforms and see if we can gauge if the system is achieving more efficiency or less efficiency. depending on these characteristics and I believe that we can kind of gauge the efficiency this way and bypass that instantaneous power integration mathematical equation that we inevitably have to apply to our system but I haven't been able to because I need to buy a high-speed current probe and those are expensive so until I can buy that probe I'm trying to gauge the efficiency and and see which frequency is going to produce the most efficiency out of the system. And one way that we can do that is by looking at these characteristics and comparing them, you know, to a control, say a pancake coil. So we're going to be doing a lot more of experiments in the future, but this just adds a lot more evidence to the synthetic AC model, and all my predictions about this system were 100% accurate, and I'm so happy that we discovered this and documented it. That was good. I want to ask, so you're in this video, that experiment, what are you tinkering with right there as you're, looks like you're doing something with the, you're adjusting the frequency of, or just explain that, just because, yeah, I haven't, yeah, just simplify a bit for me. So what do you? So. What I'm adjusting is, and I'll usually have my hand behind my back, my one hand, because that's a good rule of thumb when doing experiments with any kind of, you know, potential high voltage, is just to have one hand behind your back so you minimize the potential of, you know. Looks like you're doing, are you lifting your leg up there? Looks like you're lifting your leg out. Are you doing some... Well, you pause... You paused it at the wrong moment, sir. He might as well pause it while I was scratching my ass. I'm like, are you adjusting the frequency there? He pauses it while I'm scratching my ass, like, hmm, what are you doing? No, so. So what we're doing, what we're doing is just, well, no, what I have is a PWM is a pulse width modulator attached to the circuit, and that allows me to adjust the frequency up to, I think, 150 kilohertz, which is very high compared to the lightning thief system just has one frequency that you can set it at. It's its natural resonant frequency. So we can go up to 150 kilohertz. So this frequency just were referring to the actual pulsations, like they're on and off office? Yes, it's a pulse. It's a square wave, basically. I mean, you can change the waveform, but it's not going to be a smooth sine wave coming out of there, like a stereo amplifier. So what we're doing is we're pulsing at specific frequencies and looking at the waveform, and also adjusting the duty cycle, because the power factor also, like the amount of power you're putting into your system, there's a threshold. you don't want too much and you don't want too little at specific frequencies, it could be too much and oversaturated with too much harmonics, and then you just have a bunch of interference instead of it being like a coherent waveform that's transferring the energy efficiently. It's just, it's almost like at specific frequencies, you might get somewhat of a resonance cascade, where the residence just keeps building with nowhere to go. As, you know, like, we've seen in most Jewel Thieves circuits that just are underutilized on their output, they make that loud ringing noise. That's, you know, that's wasted energy, obviously. Okay. That's a good sign, yeah. Yeah. You're going to ask about this. Yes. It says 5 MS, that's milliseconds, or what's, if you get the units here, because this is zoomed out. So basically, it's all, like, all the harmonics are crammed together. Yeah, so that's very, very, that's a very, very, but what's this? High resolution right there. So that's five milliseconds, what does that refer to each, each square, or what is that? That's the time slice. Yeah, I believe that's each square unit. Okay, it's a slice of time. And, and I don't remember. This part here, is just, are you zooming in slowly? Because it's, it looks like it's, you could see them, but it doesn't show the. So that right there, I'm just changing the frequency. Oh, this is just frequency. I'm not, yeah. If I reach over to the oscilloscope, that means I'm changing the oscilloscope resolution and zooming in. But right now, I'm just changing the frequency. You see how much it amplifies at certain frequencies compared to others. And notice the different kind of edges on that amplification. Like, it's almost like it's too much interference at certain frequencies. It's fuzzy. So this one I want to ask, yeah, so you're changing the frequency there. So this one is, what's the difference between this one and this one? Because it's the same also scope of you. Yeah, so... I believe, if I'm not mistaken, and I kind of tried to document this as I'm going by, you know, telling people, oh, this is this frequency on the live stream, but, you know, I'm not 100% accurate when I'm remembering this stuff after the fact. But I believe that was the range that we got, like, a dead zone. So we got a lot of amplification starting from, like, 3 kilohertz all the way to, like, 10 kilohertz. But as we reached, like, 20 kilohertz, that line started to flatten out. and then it started to thicken again all the way up at like 40 kilohertz. And at 60 kilohertz, we got something really interesting on the microscale, zooming into the zero point convergence zone, the pinch point. I've never seen anything like that. That was interesting, and I'd like to explore that frequency range again, because again, like, this system is more versatile. We've never been able to input that high frequency into this kind of pulse system before. you know, I've been able to do it maybe 25, I think, kilohertz or 20 kilohertz is the cut off for most frequency generators apps that we've put into the stereo amp. So even the stereo amp, we haven't been able to get that high in frequency. And, you know, like, there are harmonics to that resonant frequency. And as you go up in harmonics, as you go up in frequency, your gains start to increase exponentially. But... you have to tighten your tolerances of your system a lot more. So it's a lot harder to get those higher frequencies in your system stable. Okay, and another question I have, see that second line that it looks like it's amplified? What is that line there? Oh, that second line, that's just the second probe. Okay. I don't know if I have it hooked up to anything. Sometimes when it's just sitting there, though, it will pick up the residual magnetic field of the coils, because the coil's so strong. I can have that probe sitting, like, fucking 5, 10 feet away, and it'll still, like, move it a little bit on the scope. So it's just kind of like the second scope that's not hooked up to anything, just sitting there, picking up some kind of, like, manipulation of the field that's going on. You know, because when you change the frequencies and you're pulsing it on and off, you can get spikes, you know, spikes that are larger than the overall continuous energy that's going into your output. So it, you know, those are things that you want to pay attention to along with everything else as well. So that's important to know, you know, where you're getting those spikes and where you're seeing them and how often they're happening if they're happening at all. Yeah, I just want to point out, so this is the live stream that you're on your channel of the same one we're having right now. So for, when I open this up, I thought the thumbnail was you and me there. I'm like, I have a mustache and hair. That's supposed to be John Badini. I'm like, what's going on here? That's funny. And also, speaking about John Badini, so I put a comment here, one of my subscribers messaged me on X. And he said this, he was calling Bidini Motor controlled opposition. I want to get your thoughts on this. Look at what he says here. I just said, he said what? He said what? He thinks the Bidini motor is a control opposition. This guy that's usually on my street. Controlled opposition, define that for me. What does that mean? I'll read what he said. I'll leave a screenshot. I didn't want to show his name. I guess, again, this stuff is beyond me. So he says, hey, that Bidini motor thing, because he's the one who actually... told me to buy the Bidini motor, and I bought a little Bidini motor thing. And now he's saying, hey, the Bidoni motor, I think that was all controlled obsession. The entire energy from vacuum series, never once mentioned Dr. Judy Wood for one. What's this energy from vacuum series? Is that a Bidini set up? Yeah, that's Tom Bearden and John Bedini, and, you know, they're going over different free energy theories and devices and stuff. If you want to know anything about the Bedini motor, that's the series that you're going to want to go to. But, I mean, to be... I want to finish reading and then we'll go. Yeah. Just for... Yeah, just clear. Well, just because I want to get your thoughts, because the guy's sending me this up. He says, second,…