Ultimate proof of Magnetic Vortex, free book and videos

[MileHigh]

Captain Zero you are the disruptor of this thread and the disruption started at post #215.  So either contribute technically to this thread or keep your mouth shut.

[picowatt]

@Tinman,

Nice videos.

Regarding the PM/EM bubble spin/non-spin videos:

It might be interesting to try placing a thin, non-magnetic metal disc (Al, Cu, etc) on top of the magnet or electromagnet.  Place some tape on the backside of the disc (and possibly on and just over the edges) so that neither magnet is electrically connected to the disc and so that bubble formation only occurs on the non-magnet side of the disc (or coat one side of the disc and edges with paint, etc).  Connect your supply to the disc as the source for the bubbles.

Also, if the disc is a bit larger than either magnet (3" diameter or so), the shape/size difference between the magnet and electromagnet will have less hydrodynamic influence.  Alternately, you could glue or tape the insulated side of the disc to a short piece of plastic pipe to further reduce any hydrodynamic influences.  Cut the length of plastic pipe so that the backside of the top metal disc can be made to rest on either magnet without the pipe touching bottom to insure similar contact with the disc by either magnet (or shim the magnets from below with non magnetic/non-conductive block).  You might have to drill a vent hole into the pipe near the edge of the disc to vent any gas produced by inadequate insulation to prevent the disc/pipe from floating off (and help vent air when placing over the magnets), or cut notches into the end of the pipe prior to gluing to the disc.  If necessary, tape some solder (or similar) to the bottom circumference of the pipe to weight the whole thing down a bit.

With just the top side of the disc producing bubbles, you could see if a non-magnet, permanent magnet, or electro-magnet placed under the disc has any influence on the bubbles rising from the surface of the disc.  As others have said, when looking at the differences between the PM and EM, isolate both electrically, try to use similar field strengths and disc contact geometries (is the core of your EM tubular or solid?).

Interesting stuff...  may have to give it a go myself when time allows.

PW

[gravityblock]

Here is the basics.  The magnet itself will not rotate in a homopolar motor unless there is conductive disc attached and glued to the magnet.  Then, and only then, can the magnet be made to rotate.  The nickel coating on the neo magnet acts like a conductive disk glued to the magnet.  If there is a small gap between the conductive disc and a non-conductive magnet, then the conductive disc will rotate and the magnet itself will remain stationary.  Rotating only the magnet while the conductive disc/external circuit is stationary doesn't generate a voltage.  However, rotating either the disc or external circuit will generate a voltage, regardless if the conductive disc is glued to the magnet or not.

Gravock

[gravityblock]

Here is the basics.  The magnet itself will not rotate in a homopolar motor unless there is conductive disc attached and glued to the magnet.  Then, and only then, can the magnet be made to rotate.  The nickel coating on the neo magnet acts like a conductive disk glued to the magnet.  If there is a small gap between the conductive disc and a non-conductive magnet, then the conductive disc will rotate and the magnet itself will remain stationary.  Rotating only the magnet while the conductive disc/external circuit is stationary doesn't generate a voltage.  However, rotating either the disc or external circuit will generate a voltage, regardless if the conductive disc is glued to the magnet or not.

Gravock

There is a small exception to the highlighted bold portion in the above quote!  There is a voltage generated during the acceleration and/or deceleration phase!

A circularly rotating SQF (Space-Quanta-Flux or magnetic field):

According to the authors of a publication titled, "Central Oscillator and Space-Quanta-Medium" in Chapter 15 on page 148 & 149, a voltage can be measured using a non-moving contact with a rotating magnet and a stationary conductor disk during the acceleration and/or deceleration phase (which must be carried out rather quickly - see snapshot below for a quick reference).  However, at a constant rotational velocity a stationary flow is formed (as with a non-rotating magnet) again around the free conductor-electrons and therefore no voltage can be measured.  According to the Monstein-Effect, the flow intensity (and thus the magnetic field strength of the permanent magnet) of the SQF changes when rotating the permanent magnet as opposed to the resting state (depending on the direction of rotation, the rotational velocity and the magnetic field strength).

Videos:

The Oliver Crane's Theory of the Universe
Space Quantum Field Flux or RQSm
Hooper-Monstein Explanation and Experiment from RQM

Gravock

[gravityblock]

According to the authors of a publication titled, "Central Oscillator and Space-Quanta-Medium" in Chapter 15 on page 148 & 149, a voltage can be measured using a non-moving contact with a rotating magnet and a stationary conductor disk during the acceleration and/or deceleration phase (which must be carried out rather quickly - see snapshot below for a quick reference)..

Gravock

If we can instantly dump and transfer the magnet's angular momentum, then we can create an unlimited amount of excess energy during the instantaneous acceleration/deceleration phases of the magnet.

Gravock