Continuing the pondering that 'cold electricity' is actually 'coherent electricity' (the same difference as laser light vs conventional scattered light).
Lets look at various systems and see if we can narrow down a few more properties of coherent electricity.
Bedini speaks of 'Pulses that cannot be picked up on a scope or meter, but will charge a battery just fine'. The conclusion from this:
*
Coherent cannot be picked up directly with a shunt because the resistance scatters coherent EM back into conventional EM. This would be akin to shooting a laser into opaque glass. The glass lights up but scatters the beam in the process.
Floyd Sweet's videos shows him managing to run motors and light bulbs just fine on coherent electricity, which would lead to one of two conclusions:
* 1:
Coherent electricity has an associated magnetic field just like conventional electricity
or
* 2:
The resistance of the wire is converting coherent electricity back to conventional, and that is where the magnetic field is coming from. Coherent electricity either has no direct magnetic field or its magnetic properties mimic a superconductor.
I don't know the answer but I suspect the 2nd proposition is closer to reality. If the 2nd is the case,
this form of electricity might be called 'electro-dielectric' as opposed to the 'electromagnetic' that we are used to.
Don Smith and Eric Dollard and others reference FTL propagation in dielectric setups. This suggests that:
*
Coherent electricity likely has dielectric properties, making its propagation velocity likely around 1.53c.
It also suggests that:
*
Capacitors can convert coherent to conventional.
Almost every system seems to light bulbs just fine, and with a rare exception in certain HV Tesla circuits, few report their bulbs running cold. This would mean:
*
Resistance converts coherent to conventional.
If we're designing a circuit based on this, it means:
*
In general, any wire where coherent EM flows should have low winding resistance. Secondary and load side of circuit should minimize resistance.
Systems that report getting cold seem to do so in different regions. Bedini reported the magnets themselves got cold, Sweet said directly shorting leads would create frost on the wires, one odd experiment on OU forum mentioned when he blew a MOSFET that the junction was ice cold. This would suggest that:
*
The below-ground energy well can be generated multiple ways in multiple places.
*
Coherent EM is almost universally derived from a coil and magnetic field, and has dielectric properties.
One more consideration to determine where coherent EM comes from in an OU circuit:
*
Since coherent electricity seems to flow toward below-ground-state regions, energy may not actually be flowing foward, but instead flowing backward into the sink. I'm not sure how to exploit this in a circuit, but it's still worth mentioning.
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On toward creating coherent EM:
* Laser light is created when over-exited particles return to a ground state. Following that logic, Coherent EM should arise from electrons falling into a below-ground state.
* Laser light propagates best in a low resistance path. Coherent EM likely needs a low resistance path to flow as well (short wire, thick wire, silver coated wire, litz wire)
* Diode laser light comes from the gap between the P+N junction in a transistor, and propagates at a 90deg angle to the impressed dielectric field.
And lastly:
* Laser light is generated as a one-way action. Energy translated into light does not get reflected back into energy, at least at the source. Receiving laser light on the other end does not affect the source in any way.
In a circuit, this means we need to generate currents that do not reflect back to the source (heat pump, water hammer, diodes, parameter variation, etc).
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I don't have any neat experiments to show off, yet
.
Just trying to narrow down a few parameters so when we build our circuits, we are not completely in the dark.
