Nested Resonance Coil Layout for More Magnetic Field Lines
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Solution Overview
Problem
Current electromagnetic coils are limited by the finite number of magnetic field lines they generate, restricting their efficiency and power.
Innovation Solution
The introduction of a triple electromagnetic coil configuration, where a third electromagnetic coil is nested within a second coil, which is itself nested within a first coil, significantly increases the number of unique magnetic field lines generated within the same physical space.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Quantity of substance
If traditional single electromagnetic coils are used, then the device complexity is low, but the number of magnetic field lines generated is limited
Solution Approach 1:
The patent implements nested electromagnetic coils where inner coils are positioned within the magnetic field region of outer coils. Specifically, a first electromagnetic coil generates a magnetic field that passes through a second electromagnetic coil, which is nested within the first coil's magnetic field region. This nesting arrangement allows multiple coils to generate magnetic field lines simultaneously within the same spatial envelope, exponentially increasing the total number of magnetic field lines without proportionally increasing device complexity.
2Productivity
If multiple nested electromagnetic coils are implemented, then the efficiency and power increase, but the device complexity increases
Solution Approach 1:
The patent merges multiple electromagnetic coils into a unified nested configuration where the coils work together synergistically. The first and second electromagnetic coils are combined such that their magnetic fields interact and reinforce each other, creating a composite magnetic field system with enhanced efficiency and power output. This merging approach allows the nested coils to function as an integrated unit rather than separate components, improving productivity while managing complexity through functional integration.
3Quantity of substance
If the physical space is kept constant, then the motor size remains the same, but the number of magnetic field lines is limited
Solution Approach 1:
The patent transitions from a single-dimensional coil arrangement to a multi-dimensional nested configuration. By positioning coils in nested spatial relationships (inner coils within outer coils), the system utilizes three-dimensional space more efficiently. This dimensional approach allows multiple coils to occupy overlapping spatial regions, generating exponentially more magnetic field lines within the same physical volume without requiring additional space.
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 configuration enhances the efficiency and power of electromagnetic coils by exponentially increasing the number of magnetic field lines available, allowing for smaller electric motors with equivalent performance or larger motors with increased output.
Implementation Method 1
When electric current is applied to the wire, a magnetic field is generated. These magnetic fields follow the same pattern as permanent magnetics by having North and South poles.
Implementation Method 2
Each of the inner, middle, and outer electromagnetic coils generate their own unique magnetic field lines within the same space as the other, working together as a unit in the same space with exponentially more magnetic field lines available for use
Data Source
AI summary
An electromagnetic coil design consisting of a series of nested electromagnetic coils where inner, middle, and outer electromagnetic coils are created that function separately from each other to generate magnetic field lines and temporarily generated north and south poles. The inner coil is placed or ‘nested’ within the middle coil which is then placed or ‘nested’ within the outer coil. When electric current is applied to the inner, middle, and outer coil simultaneously, each coil generates unique magnetic field lines. The design further increases the generation of magnetic resistance and force by adding additional magnetic field lines available for use in the same physical space.