This circuit, inspired by Andrija Puharich's innovative design, plays a crucial role in hydrogen production through Voltrolysis, a unique method of water electrolysis that utilizes advanced modulation techniques. The recreation of this circuit by Secure Supplies integrates nano-bubble technology for efficient hydrogen fuel generation.

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Detailed Description of the Circuit:

This PCB (Printed Circuit Board) represents a Hydrogen Hot Rodding Voltrolysis circuit, as patented by Andrija Puharich (U.S. Patent 4,394,230). The design merges several modern components with the fundamentals derived from Nikola Tesla's and Stanley Meyer’s concepts, focusing on hydrogen production through water molecule splitting without conventional high-current electrolysis.

Key Components and Features:

Modulation Section:

CH1 30Hz Offset Adj: This is a control section for fine-tuning the offset frequency at 30Hz, with high and low levels adjustable to +2V and +1.3V, respectively. It ensures the precision of the frequency delivered to the circuit.

Modulation Potentiometer (10K): A key part for adjusting the amplitude of modulation (up to 100%).

ON/OFF Modulation Switch: Allows you to toggle the modulation circuit to control when the circuit drives voltage modulation into the system.

Capacitor (1000µF, 50V):

Provides DC filtering and smoothes out the input power to the circuit. The capacitor helps store energy and then releases it in a controlled manner, preventing ripples in the voltage supply.

Power Input:

120V AC input feeds the primary power through a dedicated transformer setup, eventually supplying regulated power to the key active components. The conversion of AC to DC ensures consistent current flow for driving the electrolysis process.

Active Circuit Components:

MJ11015 and KD305 Transistors: These are power transistors handling large currents and acting as switches or amplifiers within the circuit. These components drive the current needed for the water-splitting process, under controlled modulation. MJ11015 is a high-current transistor, whereas KD305 provides additional power regulation to ensure smooth operation.

10F Non-polar Capacitor: Acts as a resonant capacitor, helping to maintain the ideal frequency for electrolysis. The resonance between this capacitor and the water in the cell allows for efficient voltage application to the water molecules.

BNC Connections:

These connectors allow for easy interfacing with external signal generators or monitoring equipment, crucial for precise voltage and frequency adjustments.

Water Fuel Cell Interface:

The cell connections (S and F) represent the input and output lines where the electrolysis process happens. The design allows for multiple configurations of the electrolysis tubes or plates. Proper adjustment of the modulation and frequency ensures that the resonant frequency is aligned with the natural resonance of water molecules, splitting them into hydrogen and oxygen efficiently.

Resistor Network and Fine Control:

TP22 (test point) allows monitoring of specific voltage levels during operation, ensuring that the circuit performs optimally. Resistors in series provide current limiting and fine-tuning capabilities for balancing the modulation across different stages of the circuit.

Grounding and Safety:

The grounding sections ensure that the circuit remains safe during operation, dissipating excess current and voltage spikes effectively.

Working Mechanism:

The Voltrolysis process works by sending modulated electrical signals at specific frequencies into the water fuel cell. The modulation, controlled through the frequency offset (30Hz in this case), aligns with the water's molecular resonance frequency. Instead of brute-force electrolysis using high current, this technique efficiently separates water molecules into hydrogen and oxygen using less energy by inducing nano bubbles at a molecular level, improving the hydrogen production rate.

The MJ11015 and KD305 transistors handle the switching of high currents required to generate the necessary fields. They act in conjunction with the modulation to control the timing and strength of the pulses sent to the water fuel cell. The result is an efficient system capable of generating hydrogen with reduced power consumption compared to traditional methods.

Practical Applications:

Hydrogen Fuel Production: This circuit is ideal for small-scale hydrogen production, supporting clean energy initiatives.

Renewable Energy Systems: With the growing focus on alternative energy, this circuit can be integrated into hydrogen fuel cells or energy storage systems for vehicles or stationary power units.

Scientific Research: It provides a robust platform for researchers working on water electrolysis or experimenting with nano-bubble technologies for hydrogen generation.

Conclusion:

The recreation of Andrija Puharich's Voltrolysis circuit by Secure Supplies has enhanced its functionality with modern components and modulation techniques, providing an efficient, low-power alternative for hydrogen production. This circuit board is a crucial part of future hydrogen fuel systems, contributing to advancements in clean energy solutions.

The circuit is ideal for those looking to explore hydrogen fuel technologies, experiment with water electrolysis, or develop systems for renewable energy generation.

Daniel's kind-hearted approach and dedication to a cleaner energy future deserve recognition and support.

By supporting his work, you join in the journey toward a sustainable future. Godspeed, Daniel Donatelli!