In all my years of experimenting, the mysterious Floyd Sweet VTA has intrigued me the most. There have been many writings and discussions about the VTA on how this man was receiving a astounding 5000 cold watts (and more) of negative energy from his small coils in the VTA setup.
It was said that while operating the VTA his coils wires could be shorted and the ends would ice up. It was reported by Tom Bearden that the VTA would lose weight while in operation, and that they in fact hovered the VTA unit above the bench in a controlled mode. The VTA output was controlled by load variant. Floyd Sweet was very protective of his project design. But he wrote a paper about the VTA that offers clues and should be read with interest. I will build this unit, and attempt to explain the process as I understand it after many years of my own experiments. I have seen cooling effects in coils that I have designed, and have finally decided to give it a serious attempt. To start with, I will use (1) series connected coreless byfilar coil. I will employ (2) 1" thick X 6" long X 4" wide ceramic magnets. I have built a housing of sorts wrapped with many strands of magnetic wire. The magnets will be placed in this housing (one at a time) and pulsed with a high voltage field to degauss the magnets in a controlled manner. I will bring the flux gauss rating down to around 40 to 60 gauss to experiment with. It will be a AC controlled experiment. Most all standard coils (transformers, etc) are wound back and forth, or up and down the core. This is a common easy method to wrap a core by a machine. The problem is, when potential is flowing through this easy design of coil, some magnetic fields are being canceled and lost forever in the wires. My byfilar series connected coil(s) allows potential to only flow in one direction. They also require more time and patience to build. This creates a additive effect of potential within the coil(s). Floyd speaks of this as the Motional E-Field. When I pulse a coil of this design with DC, potential flows freely through the wires with a cumulative effect. When the coil collapses, a stampede or avalanche of electrons pour into the windings. This is the cold electrons that everyone speaks about. So the trick is, to keep the coil in this collapsed state as long as possible to obtain extra potential and electrons. These highly charged electrons (Negative energy) are below ambient temperature. No work was induced to receive them, because no heat is created in the collapsed mode. Heat only occurs in the pulse mode. When I DC pulse my type of coil, a natural cumulative magnetic flux field occurs around the windings in this coil. There is no canceling effect. The magnetic polarity direction of this field depends on how I wire the coil as to positive or negative. When we bring the VTA and AC current into the picture, magnetic polarity direction becomes important. The magnets that have been degaussed have to be placed in accordance with these fields. I want the degaussed magnets with their fields to oscillate with a controlled AC flow into (and out of) my coils. The magnet domain alignment has been disturbed and disordered. As Floyd explains: "They now simply support mass". The domains will now act somewhat independently of each other dancing with the rhythm of the AC frequency. Coils in the DC mode simply collapse collecting sharp potential while losing their magnetic field in the process. In the VTA setup, I will be using AC with its sine wave of peak and valley rhythm to take advantage of magnetic field oscillation occurring within the magnet domains. This should allow cool current (Negative Energy) into the windings offered by the magnets domain oscillation alignment and flood the coil(s) in the sine wave valley of the AC frequency. A small AC input current is applied to the coils. As the (Positive Energy) current reaches the peak of the sine wave, the domains of the magnets are scattered in a disturbed random order. After sign wave peak, the magnet domains align with the magnetic coil(s) field. This adds to this magnetic field of the byfilar series wound coil(s) to the downside of the valley in this sign wave offering a negative energy flow. One can see how this process will be controlled by a variant load. More load would require more negative current flow which is no problem from the motional field. More current flow equals a colder current. As long as current is pulled off in the peak to valley part of the sine wave, the supply is unknown. But, it would be huge. Small coil(s) wires would be able to handle large current flows of negative energy. In this process one can also see how positive and negative currents could not coexist. They would cancel each other out if a meeting between the two occured. A coil in the collapsed stage can carry very large amounts of current and voltage. Resistance wire charts become irrelevant and useless under these circumstances. In summary, we will be trying to effortlessly scatter magnet domains at the peak of the sign wave with a small AC input of positive energy current and then bring order to the magnet domains after sine wave peak. A very small positive energy supply in the first hump of the sine wave and huge negative energy flows in the latter part of the sine wave being load dependent. This should add a motional magnetic flux to the coil(s) in the collapsed stage bringing in a negative energy flow after the peak and fall to the valley of the sine wave. This is the motional e-field Floyd speaks about at length. After all, motional magnetic flux is electrical in nature. The AC frequency will be adjusted as needed to become phase locked with magnet domain oscillation.
