Magnetic Collapse Generator Control for Friction and Heat Loss
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Solution Overview
Problem
Conventional electric generators face inefficiencies due to friction, rotor braking, and heating, which reduce their operational efficiency and increase energy consumption.
Innovation Solution
The magnetic collapse power generating device utilizes permanent magnets, a three-phase system, bifilar coils, and a magnet arrangement axially disposed to the generator rotor, along with magnetic pulse control software to harness self-induced magnetic fields and counter-electro-motive forces for efficient power generation.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of energy
If conventional electric generators are used, then power generation can be achieved, but friction, rotor braking, and heating reduce operational efficiency and increase energy consumption
Solution Approach 1:
The patent replaces conventional mechanical generator components with a magnetic collapse mechanism. Instead of using traditional rotors and stators that generate friction and heat, the invention uses permanent magnets arranged in alternating polarity patterns that create collapsing magnetic fields to induce current in copper coils, eliminating mechanical friction and rotor braking losses
Solution Approach 2:
The invention changes the fundamental operating parameter from continuous mechanical rotation to periodic magnetic field collapse. By controlling the collapse and recharge cycles of magnetic fields through precisely positioned permanent magnets and copper coils, the system achieves energy generation with minimal energy loss to friction and heat
2Productivity
If magnetic collapse mechanism is used, then power generation efficiency is enhanced and energy consumption is reduced, but device complexity increases due to permanent magnet arrangement and control software
Solution Approach 1:
The magnetic collapse device is divided into modular segments with permanent magnets arranged in alternating polarity patterns around the rotor periphery. Each segment of magnets and corresponding copper coils operates as an independent unit, allowing the complex magnetic field generation to be broken down into manageable, repeating modules that simplify manufacturing and assembly
Solution Approach 2:
The system uses periodic collapse and recharge cycles of magnetic fields generated by permanent magnets moving past copper coils. This periodic action creates alternating current through electromagnetic induction while maintaining a relatively simple mechanical structure, as the complexity is managed through the timing and positioning of magnetic field interactions rather than complex control mechanisms
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
This approach enhances power generation efficiency by minimizing friction and heating, reducing energy consumption, and increasing the output power while maintaining a lightweight design.
Implementation Method 1
The magnetic collapse power generating device utilizes permanent magnets, a three-phase system, bifilar coils, and a magnet arrangement axially disposed to the generator rotor
Implementation Method 2
harvest self-induced magnetic fields and counter-electro-motive forces for efficient power generation
Implementation Method 3
The central shaft (13) is connected by one of its ends to a magnetic coupling (3)
Implementation Method 4
a magnetic levitation system formed by the upper Magnet Holder (14) and the lower Magnet Holder (16) and the frictionless space (15) that is formed between said supports
Data Source
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AI summary
The present invention is directed to a power generation machine or device, comprising permanent magnets, a three-phase system, bifilar coils and a magnet arrangement disposed axially to the generator rotor; and comprising a system embedded by magnetic pulse control software for the moment of magnetic collapse or generation of electric power peaks or valleys, whereby a set of sensors detect the precise angular moment in which the coils have stored the maximum magnetic energy and then trigger their magnetic collapse or generation of electric power peaks or valleys by a switching process controlled by the signals coming from said sensors. All these elements are arranged in the rotor and circumferential stator, which generates electrical energy when moving.