Re-Inventing The Wheel-Part1-Clemente_Figuera-THE INFINITE ENERGY MACHINE

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Picture 2

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Picture 3

Swamp

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This is my last try to get pictures.
Sorry

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View for the top of the two coil "resistor."

[bajac]

TEST#1 - Open Circuit Testing voltages and Currents (NO LOAD) - TAP = 600 Turns.


Transformer's data:


Input coils #1 and #3 Taps: 200, 400, 600, and 750 turns of # 16 AWG.


Output coil #2: 300 Turns of #12 AWG.



Picture 'TableSettingTest1' shows the Table configuration for testing my a single section. See this link: https://imageshack.com/i/0msrlfj
You can see the power supply on the right having an adjustable auto transformer, the transformer's coils on the center, and the step drive and arduino controller on the left.


Picture 'StepDrive2M542Tables' shows a closeup view of the step driver. See this link: https://imageshack.com/i/nq2sjxj


Picture "ArduinoControllerConnection' shows a closeup view of the arduino controller having a shield attached. See this link: https://imageshack.com/i/f1k3nsj


Picture 'ArduinoCodeTest1' shows the arduino program used to provide the pulses to the step drive. See this link: https://imageshack.com/i/mas3npj Notice the frequency is set for 32KHz. The step drive was set for 25,600 micro-stepping generating an output voltage on coil#2 of about 58.8 Hz. Note: the output pin is #13 (not #6 as stated in the notes)


Picture 'CurrentAt120VacTest1' shows the AC current at 120Vac going into the power supply. See this link: [size=78%]https://imageshack.com/i/09bxkdj[/size]
notice that the current is barely visible in the analog scale.


Picture 'StepDriverVoltageOutput' shows the DC PWM voltage out of one of the step driver outputs. See this link: [size=78%]https://imageshack.com/i/n9cijij[/size]
As expected, notice the square shape of the voltage waveform.


Picture 'StepDriveCurrentOutputTest1' shows the DC current out of one of the step driver outputs. See this link: [size=78%]https://imageshack.com/i/0f9wz2j[/size]
Notice the spikes generated. Anyway, the overall shape is pretty good.



Picture 'AcVoltOutputCoil2Test1' shows the AC output voltage from coil #2. See this link: https://imageshack.com/i/0stc73j
The data measured for this voltage are the following: Vrms =16.40 Vac; Vp-p = 40 Vac; Freq = 58.8 Hz. Notice the good quality of the voltage waveform (it looks similar to a modified sine wave provided by inverters). The voltage output looks much better than the one using the seven resistor method.

I also wanted to add that the loses are minimum when using this method to generate the primary voltages. The resistor method generates a lot of heat and losses.

I will run more open voltage test for the other taps to then proceed with the load and short circuit tests.


As I stated before, I am kind of disappointed that none in this forum have gotten good testing results with the resistors. Instead, I see many people confused and moving away in the wrong direction (not the one recommended by Figuera and I). We need to stop the BS theory and move into construction as originally intended in this forum.


Bajac