Partnered Output Coils - Free Energy

[tinman]

Run a single wire through the hole of the core, exactly in the middle of the hole and it will be induced by the primary.

Mags

Mags

Indeed it will-->poynt99 

This gives rise to the poynting vector,which is the cross section of both the primaries E field,and the secondaries B field.

[poynt99]

Run a single wire through the hole of the core, exactly in the middle of the hole and it will be induced by the primary.

Mags

Yes, it will. Why? From flux cutting across the wire? No.

It's the E field produced by the changing flux in the core. The induced E field induces an emf in the wire.

The E field also induces an emf in the secondary in our example.

The E field is not confined to the toroid core, while the B field is.

[EMJunkie]

Indeed it will-->poynt99 

This gives rise to the poynting vector,which is the cross section of both the primaries E field,and the secondaries B field.

@Tinman - Question for you - I believe this will be very important for all...


If you vary your Input Voltage, from 12 Volts, down 1 Volt at a time, and record the performance, do you see a drop off entirely of the efficiency?

I expect you will see a point where the RT is no longer as efficient.

In fact, I believe, by changing your input voltage you will be able to change the output efficiency.

If you need some assistance, I have attached a handy little Tool, I call it COP Calculator. Save the results to Image when done for a Quick record. See Below Image:

Zip File is attached: COP_Calculator.zip

   Chris Sykes
       hyiq.org

[tinman]

Yes, it will. Why? From flux cutting across the wire? No.

It's the E field produced by the changing flux in the core. The induced E field induces an emf in the wire.

The E field also induces an emf in the secondary in our example.

The E field is not confined to the toroid core, while the B field is.

It is actually an EM field,as the E field is changing in time. An E field on it's own will not induce an EMF in the secondary,as a pure E field is not changing with time-is static.

[poynt99]

There are electrostatic E fields (non-changing), and then there are non-electrostatic E fields which are induced from a changing B field. This is the type of E field we are dealing with in our example, and it is responsible for inducing an emf in the secondary.

So the E field I am referring to is not "on its own", it is the changing E field induced by the changing flux within the core.