The Friction-Coupled Oscillator Principle The Setup: Two…
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The Friction-Coupled Oscillator Principle
The Setup: Two asymmetric cogs (Material: \[Common Metal\]) mounted on a shared tension frame.
The Discovery: Unlike standard gears, these are tuned so that the heat and drag (friction) at the contact point generate a thermal-expansion pulse that pushes the following tooth.
The Loop: Cog A drives Cog B; the friction at the mesh-point provides the "expansion kick" that returns torque to Cog A.
The Output: A standard magnetic induction coil wrapped around the primary axle to harvest the excess kinetic energy as Direct Current.
To Prove It: Assemble, apply a 3,000 RPM kickstart, and monitor for self-sustained RPM stabilization under electrical load.
"The friction at the mesh-point is not loss; it is the thermal-expansion catalyst that drives the secondary cog, returning torque to the primary axle. Start at \[Insert RPM\] to lock the resonance."
#industry
The Setup: Two asymmetric cogs (Material: \[Common Metal\]) mounted on a shared tension frame.
The Discovery: Unlike standard gears, these are tuned so that the heat and drag (friction) at the contact point generate a thermal-expansion pulse that pushes the following tooth.
The Loop: Cog A drives Cog B; the friction at the mesh-point provides the "expansion kick" that returns torque to Cog A.
The Output: A standard magnetic induction coil wrapped around the primary axle to harvest the excess kinetic energy as Direct Current.
To Prove It: Assemble, apply a 3,000 RPM kickstart, and monitor for self-sustained RPM stabilization under electrical load.
"The friction at the mesh-point is not loss; it is the thermal-expansion catalyst that drives the secondary cog, returning torque to the primary axle. Start at \[Insert RPM\] to lock the resonance."
#industry
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