Magnetic Induction Device Resonant Frequency Selection
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Solution Overview
Problem
Existing non-invasive biological conditioning devices require precise positioning over specific body structures to generate high frequencies for therapeutic effects, making them cumbersome and limiting in application, especially for targeting small entities like viruses and bacteria within body fluids.
Innovation Solution
A magnetic induction device that generates a wide-band magnetic signal with a center frequency resonant with the structure and harmonics resonant with sub-structures, allowing for current induction without the need for direct positioning over the target, using a transmitter that can be placed anywhere on the structure, and employing a controller to select appropriate frequencies and waveforms based on lookup tables or real-time detection.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If a non-invasive biological conditioning device generates high frequencies for therapeutic effects, then the therapeutic effect is improved, but the device requires precise positioning over specific body structures which makes it cumbersome and limiting in application
Solution Approach 1:
The patent applies resonance principles by inducing magnetic signals at specific frequency ranges that resonate with the structure and its sub-structures. The controller characterizes the structure to identify resonant frequency ranges, enabling effective current induction without requiring precise positioning of the transmitter over the target area.
Solution Approach 2:
The system changes the frequency parameter of the magnetic signal to achieve resonance with different structures and sub-structures. By selecting frequencies within identified resonant ranges, the system maintains therapeutic effectiveness while eliminating the need for precise positioning, thus resolving the contradiction between reliability and ease of operation.
2Productivity
If the transmitter is positioned precisely over the target structure, then current induction efficiency is improved, but the device becomes cumbersome and limiting in application
Solution Approach 1:
By utilizing resonance frequencies identified through structure characterization, the system achieves efficient current induction in sub-structures without requiring the transmitter to be positioned directly over the target. This resonance-based approach maintains productivity while significantly improving adaptability and application flexibility.
Solution Approach 2:
The system employs a wide-band magnetic signal that can resonate with multiple structures and sub-structures across different frequency ranges. This universal approach allows the same transmitter to effectively treat various targets throughout the structure, enhancing both current induction efficiency and application versatility.
3Reliability
If the device uses direct contact or precise positioning to target small entities like viruses and bacteria, then treatment effectiveness is improved, but the device becomes cumbersome and limiting
Solution Approach 1:
The system uses resonance frequencies to induce currents in small sub-structures such as viruses and bacteria within body fluids. By characterizing the structure to identify resonant frequency ranges, the system achieves effective treatment of small entities without requiring direct contact or precise positioning, thereby maintaining treatment effectiveness while reducing device complexity.
Solution Approach 2:
The magnetic signal acts as an intermediary that can penetrate through the structure to reach and induce currents in small embedded sub-structures. This intermediary approach allows effective treatment of viruses and bacteria without requiring the transmitter to be in direct contact with or precisely positioned over the targets, simplifying the device requirements.
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
Enables effective current induction in both the structure and sub-structures, providing a therapeutic effect without the need for direct contact or precise positioning, allowing for flexible placement and efficient treatment of biological entities like bacteria and viruses within body fluids.
Implementation Method 1
a transmitter configured to induce a magnetic signal in a structure
Implementation Method 2
identify a first frequency range of the magnetic signal that resonates with the structure; identify a second frequency range that resonates with the sub-structure
Implementation Method 3
detect currents induced within either the structure or sub-structure by the magnetic signal
Implementation Method 4
select a frequency for the magnetic signal within the first frequency range that has a harmonic frequency in the second frequency range
Data Source
AI summary
One example discloses a magnetic induction device, including: a transmitter configured to induce a magnetic signal in a structure; wherein the structure is coupled to a sub-structure; a controller configured to characterize the structure so as to identify a first frequency range of the magnetic signal that resonates with the structure; wherein the controller is configured to identify a second frequency range that resonates with the sub-structure; wherein the controller is configured to select a frequency for the magnetic signal within the first frequency range that has a harmonic frequency in the second frequency range; and wherein the transmitter is configured to transmit the magnetic signal into the structure at the selected frequency.