Triple Torque Amplification Theory

[Lunkster]

Triple Torque Amplification Theory:

The attached file has information of three ways that torque is amplified in one device.
1.)  Through layered stator and rotor core tabs configured and tested
to increase the torque by 238%
2.)  Permanent magnet assist: This approach doubles the flux flowing in
the area where the interaction between the stator and rotor core pieces.
3.)  Core material increase the flux flow over air core coils. 
Dr. Robert Holcomb talks about this as a large improvement in device performance.

I use all of these amplifications in one device.
I files have a lot more information of ways to improve electromechanical
devices.

Lunkster

[tinman]

Triple Torque Amplification Theory:

The attached file has information of three ways that torque is amplified in one device.
1.)  Through layered stator and rotor core tabs configured and tested
to increase the torque by 238%
2.)  Permanent magnet assist: This approach doubles the flux flowing in
the area where the interaction between the stator and rotor core pieces.
3.)  Core material increase the flux flow over air core coils. 
Dr. Robert Holcomb talks about this as a large improvement in device performance.

I use all of these amplifications in one device.
I files have a lot more information of ways to improve electromechanical
devices.

Lunkster

Well i made it through the first 10 pages, but that was about it.

It is clear you have more learning to do about many things-( as do we all).
For example--you claim that the copper wire in a generator would run out of electrons after driving a load for some time, and you have come up with a theory that PMs suck electrons out of space, and throw them into the copper wire, which is why the copper wire never runs out of electrons. Fact is, no electrons enter or leave a circuit, as all conductors have their own electrons. So all the generator actually does, is pump the electrons around the circuit, load, and generator. In the case of DC, electrons flow out of !what you call! the negative side of the generator, through the circuit, and back into the positive side of the generator, where the motion of the magnetic fields within the generator, pump/push the electrons through the generator windings, and then back out the negative side again.

Now, the electron moves quite slowly through the conductors, but when you have billions of electrons all flowing slowly, then you have billions of electrons leaving the generator every second, and this number increases with size of said generator, or at what speed and load is placed on the generator.

So no, the copper windings within a generator will not run out of electrons, as you need a completed path in order to have electron flow.
And no, electrons are not sucked out of space, and thrown into the windings by magnets.

If you want an efficient motor, then make sure your magnets and coils are fixed (motionless), and have only the rotor turn.


Brad.

[Lunkster]

Brad,

Thank you for replying to my post.

What I wanted to convey in the first 10 pages, is that when using a hand crank generator is
that as long as you turn the hand crank, the electrons will flow to produce heat and light
in the light bulb forever as long as the movement is occurring by the hand.  I was saying that
the materials in the set up can not supply that many electrons for the heat and the light
from the light bulb by itself.  I am saying that the electrons con from the secondary source
of power.  That secondary source of power can be from the environment from static electrical
charges or from the zero point energy.

Why is this important for my free energy motor designs?

It is because one of the first questions people is to ask, how can the motor be a free energy device
by having more output energy than output torque that can run a generator to produce more energy
in the output?

So I work through several different electromagnetic concepts in this paper of how different energy
sources come into play in order to have a device that does not violate thermodynamics.

Each of the three amplification techniques use a different method of inputting external power
or power conversion technique into the device to achieve a final system where the input
electrical power along with these three amplification techniques can operate an external generator
to produce more output electrical energy than the input energy.

When I have time, I will try to make this more plan in this paper.

I did add a lot of information of what it took me to get to this three layer design.

The motor plan that uses three torque amplification techniques are on pages 96 through 196.

Again,  Thank you for your input,  I helps me out a lot to know what people are thinking.

Lunkster

[tinman]

Brad,

Thank you for replying to my post.

What I wanted to convey in the first 10 pages, is that when using a hand crank generator is
that as long as you turn the hand crank, the electrons will flow to produce heat and light
in the light bulb forever as long as the movement is occurring by the hand.  I was saying that
the materials in the set up can not supply that many electrons for the heat and the light
from the light bulb by itself.  I am saying that the electrons con from the secondary source
of power.  That secondary source of power can be from the environment from static electrical
charges or from the zero point energy.

Why is this important for my free energy motor designs?

It is because one of the first questions people is to ask, how can the motor be a free energy device
by having more output energy than output torque that can run a generator to produce more energy
in the output?

So I work through several different electromagnetic concepts in this paper of how different energy
sources come into play in order to have a device that does not violate thermodynamics.

Each of the three amplification techniques use a different method of inputting external power
or power conversion technique into the device to achieve a final system where the input
electrical power along with these three amplification techniques can operate an external generator
to produce more output electrical energy than the input energy.

When I have time, I will try to make this more plan in this paper.

I did add a lot of information of what it took me to get to this three layer design.

The motor plan that uses three torque amplification techniques are on pages 96 through 196.

Again,  Thank you for your input,  I helps me out a lot to know what people are thinking.

Lunkster

Hi Lunkster.

In regards to a lightbulb (incandescent type), you need to think as the bulbs element as a choke point for the electrons.
This choke point creates friction, which results in heat and light. But once again, no electrons are lost, and none are gained. The existing electrons within all the conductors are simply pumped around the circuit.

As far as torque amplifiers go, then any successful device would be much appreciated by us all.


Brad

Brad

[Lunkster]

Brad,

Torque amplification:
I see flux amplification supporting torque amplification when
in a well designed device.

Torque amplification one in one device design:
1.) Permanent magnet supplement in device.  Dr, Bearden and many others had used this technique
2.) Using core material instead of air gaps in coils.  Dr. Robert Holcomb talks about this technique
3.)  Multi-layered stator and rotor tabs or core material in test area.  The following two photo's
show the test fixtures I used to collect the data I took at this concept.
Yes the testing was very crude.  But I did see that the single only provided 42% of the
torque that the 4 rotor layer configuration.  5 and more layers dropped off in the torque performance.
This is an easy test for most people to replicate.

Now I propose to use all three of these in one device.

The paper I placed in the first post has a lot more information about reducing capturing  energy
from collapsing core materials to be used again in power circuits.

I also have information of electrical mechanical movement that uses 5 permanent magnets per
one electromagnet to reduce the input power requirements per the output torque of the motor.

The  methods  of producing torque with reduce input power to operate the system, the better change
we can deliver a system that will be self running.

Lunkster