Jerk Electromagnetic Fields for Tissue Stimulation and Particle Reduction
Find Innovative SolutionsGenerate Solutions
Solution Overview
Problem
Current methods for tissue or material stimulation lack effective means to generate jerk-generating electromagnetic fields, which are necessary for over-accelerating cells or material particles, thereby failing to efficiently stimulate tissues or reduce particle size.
Innovation Solution
The use of electromagnetic transducers that apply jerk-generating electromagnetic fields, specifically electrostatic, electrical, and magnetic fields, with activation signals having waveforms that abruptly change parameters, such as polarity or voltage, to stimulate tissues or reduce material particle size.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional electromagnetic fields are used for tissue stimulation, then the stimulation effect is insufficient, but using jerk-generating electromagnetic fields requires complex activation signals and transducer arrangements
Solution Approach 1:
The patent applies dynamics by using time-varying activation signals with specific waveforms (sawtooth, triangular, square waves) that generate jerk-generating electromagnetic fields. The activation signals dynamically change parameters such as frequency, amplitude, and duty cycle to produce the desired jerk effect on cells and particles, resolving the contradiction between stimulation efficacy and device complexity through dynamic field control rather than static complex arrangements
Solution Approach 2:
The patent employs parameter changes by systematically varying electromagnetic field parameters including frequency (1 Hz to 3 MHz), voltage amplitude (−20 kV to 20 kV), and waveform characteristics. These parameter changes enable the generation of jerk-generating fields that effectively stimulate tissue and reduce particle size, achieving reliable stimulation through parameter optimization rather than complex device architecture
2Speed
If activation signals with frequent parameter changes are applied to generate jerk, then over-acceleration of cells is achieved, but energy consumption increases
Solution Approach 1:
The patent applies periodic action by using activation signals with specific frequencies (1 Hz to 3 MHz) and duty cycles (10% to 90%). The periodic nature of these signals enables controlled jerk generation that achieves cell over-acceleration while the duty cycle modulation allows energy savings during non-active phases, resolving the contradiction between speed achievement and energy consumption
Solution Approach 2:
The patent implements continuity of useful action by using high-frequency activation signals where the interval between pulses is much shorter than the cell response time. This creates an effectively continuous jerk-generating action that maintains cell over-acceleration without requiring excessive energy input, as the system operates continuously at optimal parameters rather than in intermittent high-energy bursts
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 effectively over-accelerates tissue cells or material particles, achieving mechanical stimulation and reducing particle size, thereby enhancing tissue treatment efficacy and material processing efficiency.
Implementation Method 1
generating an activation signal having a waveform that generates electromagnetic field jerk by a computing unit; and applying the activation signal to the arrangement of electromagnetic transducers by the computing unit; wherein the arrangement of electromagnetic transducers produces jerk-generating electromagnetic fields which mechanically stimulate the tissue
Implementation Method 2
A drastic variation of the electromagnetic field vector, electrostatic field, electrical field and magnetic field in the tissue of interest or material is obtained. Said drastic variation generates an over-acceleration of the cells comprising said tissue or the particles of the material.
Data Source
AI summary
The present disclosure relates to methods and devices for applying electromagnetic field jerk to materials and tissues.A first method comprises the following steps: A) generating an activation signal having a waveform that generates electromagnetic field jerk; and B) applying the activation signal to the arrangement of electromagnetic transducers.A second method comprises the following steps: a) generating a carrier signal with a series of pulses by a computing unit; b) generating a modulating signal that generates jerk; c) generating an activation signal that modulates the carrier signal using the modulating signal that generates jerk; d) applying the activation signal to the arrangement of electromagnetic transducers.Some embodiments of the disclosed methods and devices are used for fracturing, pulverizing and reducing particle size of material and tissues.