Hi everybody. My name is Timothy Trespass and I am a targeted human being. You are currently seeing me through a defraction grading. This is a circular defraction pattern carved into plastic. Two circular defraction gradients one laid upon the other. In nanoscale technology, this would be called a bragg grading. But for the rest of us, with only high school or elementary school optics, we can consider this a circular defraction pattern, a circular defraction grading. Now, what happens when light goes through this circular defraction pattern? Well, the light bends. It bends because it has to be forced through these little holes, these circles. And so, because there's two circles, the holes are even smaller and the light polarizes in a circular fashion, which then leads to, I know it's not possible to see it in this video, but an optical illusion, which for those of you who have ever seen one of these gradings, when you hold it up to the light, there will appear a bubble about this far out. When you walk back about eight feet or so, and it will appear as though we're holographic emanation. And in fact, it is holographic. It is light coming through these defraction gradings and giving us a graphic, I don't know. Anyway, this circular pattern of defraction on an anal scale, these bragg gradings, are what they're making with graphene, terahertz resonators. Very, very, very small. Terahertz is in the light wave frequencies, in the nanometer scale, the wavelength. Visible light is approximately 400 to 800 or so nanometers, very, very limited scale that our eyes can see. There is a point where electromagnetic radiation, like radio waves, which then gets smaller and become microwaves, which then gets smaller and become infrared, terahertz radiation, infrared, then light, then ultraviolet x-rays on where to gamma rays and whatever is above that, they're not saying. So, you've seen the video RFID inside of me. And what I found inside of my cells and my blood is just this same pattern, this circular fraction pattern. And as you can see, when I move the pattern, the light, the position of the light moves. I know you're also seeing a reflection, but there's the circular position of the light that comes from the bragg grading. Now, when microwaves or rather terahertz radio waves, sub-terahertz, say point something, something, something terahertz waves, go through a very, very tiny nanoscale grading, they are forced into a particular pattern. And if that space, that cavity, that they're forced to as a particular size corresponding to a particular wavelength, they will resonate at that frequency, thus creating interference patterns that will either create a stronger waveform or a smaller waveform. My theory is that this technology works by bathing one in a radar like high frequency emission modulated scheme. And then picking up the refracted, deflected, and reflected radio pattern, the waveform pattern that emanates from the target. That pattern will have been forced through a particular scale bragg grading to resonate at a particular frequency. It has been tuned to, this is quantum dot technology, nanoscale crystals that vibrate at a certain frequency because if the crystal line lattice is a very particular shape and size. So, once the radio waves or sub-light, uh, photonic emissions pass through this grading, they come out in a certain frequency pattern. Some of them being absorbed, some of them being reflected, some of them being enhanced by the interferometry. And that frequent, that pattern will also interfere with the brain wave pattern because they're harmonic frequencies. I'm just supposing now, and the reflected output of that input radio wave would be measured, quantified, demodulated, compared against a huge database of laboratory gain data, and decoded. Sounds doable to me folks, but that's my theory on circular, bragg, defraction, gradings. I don't know, there's a point where optics and radio become one, and nobody's really talking about that place where transverse electron magnetic waves suddenly become photonic particles, discrete packets of quantum energy. But there's a size. When we reduce things down to a particular size smaller than the electron orbitals, constricted smaller. You get very interesting changes in material dynamics. Anyway, thanks for watching, and have fun with your circular defraction gradings.