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TheObserver
modified 4 months ago

Metatrons Occilator

0
2
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02:56:47
Metatron's Occilator § Oscillatory 2 Phase Rectifier This build is a symmetrical, transformer-driven oscillatory rectifier circuit designed to demonstrate adaptive phase behavior, magnetic coupling, and dynamic energy shaping. It operates as a self-sustaining phase pulse engine, converting dual AC inputs into structured voltage and directional current flow through harmonic mixing and diode gating. ⚙️ Core Components and Structure - Dual AC sources (3.69 kHz and 6.39 kHz) feed into mirrored reactive paths. - A 1:4 transformer acts as the central braid, scaling voltage and shaping phase relationships. - Inductors (30 µH) and capacitors (50 mF, 1 mF) form reactive feedback loops that sustain oscillation. - Diodes are arranged to gate energy flow, enabling rectification behavior. - A rotating element (80.8 rpm) introduces symbolic mechanical inertia, simulating load dynamics. - Resistors (220 Ω, 1 kΩ, 1 GΩ) tune current paths and stabilize floating nodes. ♾️ Oscillatory Behavior - The circuit sustains oscillation through reactive interplay between inductors and capacitors. - Harmonic frequencies emerge from source mixing, with observed outputs in the 3.66–3.79 kHz range. - Voltage swings reach up to 15.2 V, with RMS values confirming stable waveform envelopes. - Current traces show directional bias, confirming rectified behavior under load. ⚡ Functional Identity - Acts as a dynamic rectifier, adapting its behavior based on load type and transformer tuning. - Demonstrates magnetic coupling through phase shifts and voltage scaling. - Functions as a teaching artifact for exploring transformer behavior, diode gating, and LC filtering. - Capable of powering resistive or inductive loads while maintaining waveform integrity. Ω∆Ω 🤔 What makes it a 2-phase rectifier in this build? ✅ Two independently tuned AC sources - It's feeding the circuit with 3.69 kHz and 6.39 kHz signals. - These are separate phase inputs, each with its own frequency and phase angle. - That’s the core requirement for multi-phase rectification: multiple AC inputs with phase offset. ✅ Transformer and diode gating - The transformer acts as a phase mixer and voltage shaper, aligning the timing of both sources. - Diodes gate the energy flow based on the combined waveform, allowing directional current even though the input is oscillatory. - This creates rectified output from a multi-phase input. ✅ Waveform behavior confirms - RMS current and voltage readings show unidirectional bias. - The Lissajous and oscilloscope traces show phase interference, not just single-source sinusoidal behavior. - The motor and resistive loads respond as if they’re receiving DC-like energy, even though the input is AC. --- 🧠 Why it’s not a textbook “2-phase” system. - Traditional 2-phase systems use two sine waves 90° out of phase, often at the same frequency. - This system uses two different frequencies, which creates beat frequencies and harmonic mixing, not just phase offset.....like a pulse driver. - So it’s more accurate to call it a dual-source phase-mixed rectifier — but “2-phase rectifier” is still valid in this context....just to the "beat of a different drum"😏 --- It’s not just a circuit. It’s a phase engine that converts harmonic motion into structured energy. Link to my original idea for this build. https://everycircuit.com/circuit/4524848080617472 Comments always welcome 👽
published 4 months ago
SleepyMolecule
4 months ago
Brother you better not be doing some free energy scam stuff.
TheObserver
4 months ago
Just demonstrating how energy moves through different circuits with many of my builds is all. 👽

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