Photon Sound Beam

Give me the right phase and an amplitude and I will lift the Moon

These are part of an on-going series of elegant experiments. As far as the physics goes, I don't think there is anything new here—instead, the real story is about control, which is much of modern physics research.

The lingering question for some of you will be, "How do you focus light through an opaque material?" The answer is fairly simple. Most opaque materials are white-ish, meaning that they don't really absorb much light; instead, they scatter the light in every conceivable direction. This scattering makes the material appear white, and by the time light reaches your eye, any spatial information that it might have carried—like who is on the other side of a frosted window—is gone.

What researchers at the University of Twente realized is that, in these systems, there are a number of paths through the material that all have different lengths. If you control the phase and amplitude of the light entering these paths, you can get the light exiting the material to have the phase relationship that you desire. In principle, you could use this to send images through a sugar cube, for instance.

Principles are cheap though. The reality is that you don't know the relationship between these paths, so you can't know what phases or amplitudes to set for any of them. The solution is to choose something simple, like focusing a beam of light, and carefully adjust the amplitude and phase of the light in each path until that is achieved.

In practice, this is achieved by passing light through a liquid crystal screen. Each pixel modifies the phase and amplitude of the light passing through it, creating a beam of light with an arbitrary phase and amplitude distribution. The light from each pixel follows its own path through the scattering material, and a camera on the other side tells the experimenter how much light is falling on a given pixel. Maximize one of these values by altering the liquid crystal screen, and you have created a focus.

A group of Israeli researchers has followed this up by showing that this works in both space and time . The idea is that if you have pulses of light that are just 100 femtoseconds (fs) in duration then, spatially, these are only something like 30 micrometers long. The different paths have a distribution of lengths that might span the entire length of the pulse or more. Although the entry pulse might be 100fs long, the exit pulse, even if it is focused in space, might have a duration of 1 picosecond (1,000fs).

Dr Billy Health » Photon Sound Beam ……….___ Quick Start ___

Described below is a typical systemic maintenance application;

Sit or recline comfortably. Make sure the body will come in contact with no metal (Chair frame, table rim Etc.), (Jewelry is optional). Place the Flat Pack(s) on or near the body, particularly effective placement may be the middle of the chest, just below the throat (Location of Thymus gland), and/or any target area of concern. The Flat Packs do not need to touch the skin, but the energy to the body is stronger the closer they are.

Now you can place yourself in the “Photon Circuit”. Grasp the glass tube of either RGP in one hand, and the glass tube of the other RGP in the other hand. In this application scenario hold the RGPs by the glass, not the handle. You will feel an electrical stimulation in the hand holding the RGP connected to the left (Power-sending) jack, and may feel a less intense stimulation in the hand holding the RGP connected to the right (Ground-Return) jack. The intensity with which you experience the “Photon Circuit” stimulation will vary, and is dependent on various factors of your dynamic living system and on what level the intensity control is set to. If while you are holding the glass of a RGP your skin should come in contact with a mass of metal, or a hydrated system (Person, other animal, potted plant Etc.) a spark may arc between the two, and you may feel a mild shock. The spark can not harm you (The electricity is very low amperage) but will get your attention. Also, you can create the spark arc if you either make contact or brake contact between the skin and the RGP “Glass” during the half second “Energized” phase of the Photon Circuit on-off cycle. Again this can not harm you, but if the intensity control is adjusted to a high setting, and you wish to avoid the sensation, simply have all skin-to-glass connections made before activating the RGPs (Pushing the button on the left), or be sure to make or brake skin-to-glass contact during the half second off/rest phase of the Photon Circuit cycle (The half second when the probes are not lighted).

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