Opto-Isolator Cap Dump

Following my recent video regarding the peculiar behavior of capacitors, I've discovered further information from Tom Bearden and Bedini. This new information aligns with my previous findings and sheds light on the potential blueprint and functioning of what is known as their "secret" opto-isolator capacitor discharge unit. I share a clip at the end of Tom Bearden supporting this idea. What do you think? Let me know!

Design the Circuit:

Identify the source coil where you will pulse the current and capture the back EMF.

Select one small capacitor (for instance, 10μF) to smooth the back EMF and two larger capacitors (e.g., 50μF each) that can handle the expected peak back EMF voltage in reverse polarity ( experimentation needed) and a desirable level of stored charge. Ex 24 V.

Choose four diodes for each full-bridge rectifier, one additional diode for the isolation of the small capacitor, and two additional diodes for the isolation of the larger capacitors - all capable of handling the expected peak voltage and current.

Choose two comparator ICs that can handle the voltages you are working with and that can sink or source enough current to drive your opto-isolators.

Choose two opto-isolators compatible with the comparator's current and voltage, capable of switching a relay to control the charging/discharging of the larger capacitors.

Choose two relays with contacts rated for the current and voltage you expect to switch. The coil voltage of the relay should match the output of the opto-isolator.

Additionally, choose four resistors and two capacitors to create an RC circuit for each relay, preventing both relays from being engaged simultaneously.

Create the Circuit:

Connect the coil to a suitable pulse generator. Ex: Bedini Motor Device

Connect the small high voltage polarized capacitor to the coil in reverse through an isolation diode. This will capture and convert the back EMF into a steady DC in negative voltage.
Connect the output of the small capacitor to a rectifier the input of two additional full-bridge rectifiers, each with its own isolation diode. Connect the positive output of each rectifier (and the cathode of the isolation diode) to one of the larger capacitors, ensuring that current can flow from the small capacitor to the larger capacitors but not in reverse.

Connect the positive input of each comparator to the positive terminal of the corresponding large capacitor and the negative input to the positive terminal of the battery.

Connect the output of each comparator to the input of the corresponding opto-isolator.

Connect the output of each opto-isolator to an RC circuit, and then to the coil of the corresponding relay. This will create a delay that prevents both relays from being engaged simultaneously.

Connect the normally open contacts of each relay to the load, so that when the relay is engaged, the corresponding large capacitor will discharge into the load.

Test and Operate the Circuit:

Apply pulses to the coil and monitor the voltage across the load and on the capacitors. The small capacitor should capture and smooth the back EMF into a steady negative DC, and the two larger capacitors should alternately charge from the small capacitor and discharge into the battery, maintaining a nearly constant voltage across the load.

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