Magnetic Shielding Generator Layout for Low-Loss Current Induction
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Solution Overview
Problem
Current electric current generators have relatively low overall efficiency due to the need for relative movement between the armature and inductor, which requires significant energy to maintain and results in low energy yield.
Innovation Solution
The proposed apparatus eliminates the need for relative movement between the armature and inductor by using a magnetic shielding structure to generate a variable magnetic field, allowing the armature and inductor to remain static while still inducing electric current.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Loss of energy
If relative movement between armature and inductor is used to generate electric current, then electromagnetic induction occurs and current is produced, but significant energy is required to maintain movement and resistance forces reduce overall efficiency
Solution Approach 1:
The patent replaces the traditional mechanical relative movement system with a magnetic field modulation system. Instead of mechanically moving the armature relative to the inductor, the invention uses a magnetic shielding structure that can be selectively positioned to modulate the magnetic field, thereby inducing current without the energy-intensive mechanical movement of heavy components.
Solution Approach 2:
The patent introduces a magnetic shielding structure as an intermediary element between the armature and inductor. This shielding structure, when positioned strategically, modulates the magnetic field flux to induce current in the armature windings, serving as a mediator that eliminates the need for direct mechanical movement between the main magnetic components.
2Power
If heavy armature and inductor components are set in relative motion, then current generation is achieved, but the considerable mass requires significant energy input
Solution Approach 1:
The patent replaces the mechanical movement of heavy armature and inductor components with a lighter magnetic shielding structure that can be positioned to modulate the magnetic field. This substitution dramatically reduces the mass that needs to be moved while maintaining the electromagnetic induction process, thereby improving the power-to-energy-input ratio.
Solution Approach 2:
The patent changes the operational parameter from moving heavy magnetic components to positioning a lighter magnetic shielding structure. This parameter change in the system's operation mode reduces the inertial mass involved in the movement, thereby reducing the energy input required to achieve the same current generation output.
3Duration of action of moving object
If continuous relative rotation between armature and inductor is maintained, then current flows through armature coils throughout rotation, but eddy currents generate resistance forces opposing movement
Solution Approach 1:
The patent uses the magnetic shielding structure as an intermediary to control magnetic field flux modulation. By strategically positioning this shield, the system induces current in the armature windings without requiring continuous rotation, thereby eliminating the eddy current resistance forces that oppose rotational movement while maintaining current flow duration.
Solution Approach 2:
The patent employs periodic positioning of the magnetic shielding structure to modulate the magnetic field flux, creating periodic induction of current in the armature windings. This periodic action replaces continuous rotation, eliminating the continuous eddy current resistance forces while maintaining the essential current generation function throughout the operational cycle.
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 significantly increases the overall efficiency of electric current generation by reducing the energy required to maintain movement and minimizing resistance forces, resulting in a more energy-efficient system.
Implementation Method 1
an induction electric current generator, wherein relative movement between armature and inductor is eliminated
Implementation Method 2
using the concept of magnetic shielding for energy generation
Implementation Method 3
magnetic induction is the phenomenon whereby some substances defined as ferromagnetic (including iron, cobalt, nickel, numerous transition metals, and their alloys) become magnetised if placed in a magnetic field
Implementation Method 4
eddy currents are generated during motion, resulting in forces of resistance to the movement itself
Data Source
AI summary
A description is given of an apparatus for the generation of electric current (1; 101; 201; 301; 351; 401; 501), comprising an armature element (10; 110; 210; 310; 360; 410; 510) supporting one or more electrical windings or conductors (12; 112; 212; 312; 362; 412; 512), appropriately arranged in a magnetic field generated by an inductor (20; 120; 320; 370; 420; 520), and optionally comprising a box structure (260) having an opening, whose surfaces have a magnetic shielding function and are intended to surround at least said armature element (10; 110; 210; 310; 360) on all sides except on the one corresponding to said opening, wherein, in operation, said armature element (10; 110; 210; 310; 360; 410; 510) is fixed and is maintained static with respect to the inductor (20; 120; 320; 370; 420; 520) and in that it comprises a shielding structure (30; 130; 230; 330; 380; 430; 530) supporting a plurality of sectors (32; 132; 232; 332; 382; 432; 532) with the function of a magnetic shield, and wherein said sectors with the function of a magnetic shield (32; 132; 232; 332; 382; 432; 532) are made up of a metal alloy comprising nickel and iron and have a thickness that varies between 0.003 mm and 3 mm, and in that said shielding structure (30; 130; 230; 330; 380; 430; 530) is set in rotation or in oscillation to cause a variation of the magnetic field and thus of the flux concatenated to said one or more windings or conductors (12; 112; 212; 312; 362; 412; 512) of the armature element (10; 110; 210; 310; 360; 410; 510).


