Magnetic Propulsion Apparatus with Stabilizer and Threaded Gears
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Solution Overview
Problem
Magnetic motors face demagnetization due to armature currents, excessive vibration, and heat, leading to reduced efficiency and high material costs, necessitating a solution for achieving high mechanical output while minimizing these issues.
Innovation Solution
A magnetic motor apparatus with a stabilizer section and propulsion unit featuring translatable cylinders with interlocking gears and magnets, where the interaction of magnetic fields generates continuous propulsion, and an additional embodiment with gear trains and threaded shafts for exponential energy output, reducing friction through ball bearings and optimized component design.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Power
If magnets are exposed to large armature currents to increase mechanical output, then power output is improved, but the magnets may demagnetize and become weaker
Solution Approach 1:
The patent divides the magnetic propulsion system into multiple independent magnetic poles arranged in segments around the propulsion unit. Each pole can be independently positioned and controlled, allowing the system to achieve high mechanical output through coordinated interaction of multiple magnet segments rather than relying on a single high-strength magnet that would be susceptible to demagnetization
Solution Approach 2:
The patent introduces a threaded shaft and gear train as intermediary mechanical components between the magnetic interaction zone and the output propulsion. The magnets interact with each other through magnetic field mediation, and this interaction is converted to mechanical motion through the threaded shaft and gears, which then drive the propulsion unit without requiring the magnets to directly withstand high mechanical or electrical stress
2Power
If traditional motor designs are used to achieve high mechanical output, then power output is improved, but material and construction costs increase
Solution Approach 1:
The patent extracts and eliminates complex electrical components such as armature windings, commutators, and field coils from the motor design. Instead, it uses a simplified configuration where permanent magnets directly interact to produce mechanical motion through a threaded shaft mechanism, removing expensive materials and complex construction requirements while maintaining high mechanical output capability
Solution Approach 2:
The magnetic propulsion unit utilizes the inherent magnetic properties of permanent magnets to generate motion without requiring external electrical power for magnetization or complex control systems. The interaction between magnets and the threaded shaft mechanism creates self-sustaining mechanical propulsion, reducing the need for additional expensive materials and simplifying manufacturing
Applied Scientific Principles
This section explains which scientific principles are used to turn an abstract innovation direction into a practical engineering solution.
Function Achieved in This Case
The apparatus achieves high mechanical output with reduced friction and increased efficiency, enabling continuous operation until component wear, while minimizing material costs and addressing demagnetization concerns.
Implementation Method 1
each of the plurality of magnets is capable of interacting with one another
Implementation Method 2
a plurality of magnets spaced apart from one another on first faces of each of the translatable cylinders
Implementation Method 3
threaded gears in interlocking engagement with the aforementioned first drive gear and gearbox
Implementation Method 4
A threaded shaft rotationally disposed in the first and second translatable cylinders is in interlocking engagement with at least the first threaded gear and the second threaded gear
Data Source
AI summary
A magnetic motor apparatus provides increased mechanical output. The apparatus includes a propulsion unit positioned in a guide sleeve adjacent a stabilizer section. A stabilizer section frame houses a drive gear and gearbox positioned on opposite interior surfaces of the frame. The gear and gearbox receive mechanical input from a drive shaft rotationally disposed in the gear and gearboxes. The mechanical input is then transferred to first and second threaded gears of the propulsion unit. Each of the first and second threaded gears are affixed to a respective one of a first and second translatable cylinder. Sets of magnets each impregnated on faces of the first and second translatable cylinders are disposed facing one another. Rotation of the drive shaft provides a mechanical input to the first and second translatable cylinders that are configured to actuate continuous propulsion from the interactions of the magnets while travelling along a threaded shaft.