Pulsed DC Transformer with Embedded Magnets

[XS-NRG]

On the contrary, clown. You should consider working together with Lawrenece for providing no arguments regarding any of your statements. You're a spammer, clown. You a clown-spammer.

spam

[Omnibus]

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spam

[ltseung888]

Workshop Slide 2

Get the components before you start.

The two coils of copper wire should both be 1 meter or 3 feet long.  The diameter should be 0.5mm.  They should be the ones specific for winding transformers.

If you do not have a scope or oscilloscope that can display waveforms, peak-to-peak and/or rms voltages, you will not be able to do this experiment.  Try to work with someone or some organization with such equipment.

Try to use the 1 inch yellow toroid.  This is a tuning exercise.  Using the wrong components may not work.

I shall get at least 100 such component sets from China before the actual workshop in USA.

With God's Blessing, this on-line workshop will reach millions.  Amen.

[XS-NRG]

This is a how to become a CLOWN exercise. 

You got that part correct.

[ltseung888]

Explaining the action of the enhanced Joule Thief from the point of view of Lead-out or Bring-in Energy

1.   With the basic Joule Thief circuit, the transistor 2N2222 will be pulsing between the OFF and ON state.
2.   At the OFF state (at the start), There is a relatively large resistance at the Emitter Junction of the transistor.  Thus most of the current will flow via the Base and Collector junction.  This current will be governed by the 1K ohm resistor.  The maximum value is 0.0015 amp(1.5V/1,000ohm).
3.   This small current will then change the resistance at the Emitter Junction to a very low value.  This is the property of the transistor.  We can think on this as the ON state.
4.   At the ON state, there will be a relatively large amount of current going around the circuit.  The current will flow through the LED and the 1 ohm resistor we put into the circuit.  Since no or little current flows through Base and the Collector, the transistor falls back to the OFF state.
5.   Thus we can treat the Joule Thief circuit as switching from the ON to OFF state and vice versa at a certain frequency. The current through the circuit including the toroid will jump from a high to a low value and vice versa.  The magnetic flux will interact with the orbiting electrons â€"changing the random orientation to an ordered oscillation.  This ordered oscillation will lead-out or bring-in existing electron motion energy.  There is no violation of the Law of Conservation of Energy.
6.   From watching the Oscilloscope, we find that the frequency detected will change with the size, the number of windings, the type of core of the toroid and the other electronic components in the circuit.  The transistor does not provide a single fixed frequency.
7.   Since the basic Joule Thief is a closed loop, we expect the battery or the power supply itself is part of the circuit.  That is effectively a self-looped or feedback system.
8.   In a stable feedback system, we expect the frequency will be maintained.  Some of the lead-out energy will be lost as heat or lighting the LED or recharging the battery.
9.   Now what happens if we drain some energy out via the secondary circuit with the magnetic flux change.  The drainage will also be pulsed.  From the oscilloscopes, we find that the output voltage (peak-to-peak) is much larger than the input.  The value can be 100 times or more.  The number of turns in the secondary may only be twice that of the primary.  Thus this phenomenon does not obey the normal rule of the transformer.
10.   The current drained out will be a function of the resistance or impedance we put into the secondary circuit.  The surprising result is that the peak-to-peak current value as observed across the 1 ohm or 10 ohm resistor can be equal to or larger than the input value.  The tuning via a variable resistor can make significant difference to the observed frequency.  (Normally, in a standard LCR circuit, changing the resistance R does not change the frequency.)
11.   The assumption from the lead-out energy theory is that â€" the phenomenon can be compared to pushing a swing.  Energy is always lead-out but if the pulsing frequency is not correct, the amplitude of oscillation may actually diminish (a damping effect). 
12.   Thus it is a matter of finding the right pulsing frequency (or resonance hunting).  At present, that is achieved by much experimenting.  Observing the Instantaneous Power waveforms on two oscilloscopes is a good experimental technique.
13.   Once we hit on a possible resonance condition, we just alter the various parameters around it.  That is how we can get FLEET prototypes with very high COP values.  In the near future, we shall freeze such configurations and try to mass-produce them.
14.   It is clear that with different transistors, different pulsing mechanism, different toroids, different LCR values and different physical dimensions; we can change the resonance frequencies.  Many successful FLEET prototypes will surface in the near future if researchers understand and follow the above outlines. 
15.   The Output Power is likely to increase from the watts range to the kilowatts range.  Practical devices for home or industrial use are in sight.

God is making the picture clearer and clearer.  Amen.