Non-Invasive Therapeutic Device Using Resonant Energy Pathways
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Solution Overview
Problem
Current therapeutic devices are limited in their ability to apply simultaneous, synergistic stimulation of light, electromagnetic fields, electric currents, dielectric barrier discharge, micro-vibrations, and sound with controlled impulse profiles, lacking real-time monitoring and dosage control, which restricts their effectiveness in treating various conditions and diseases non-invasively.
Innovation Solution
A device comprising therapeutic electrodes and transducers that apply frequency- and amplitude-modulated pulse profiles, enabling synchronous and synergistic application of light, electromagnetic fields, electric currents, dielectric barrier discharge, micro-vibrations, and sound to establish a therapeutic resonant energy pathway through the target tissue, with real-time monitoring and adjustment of energy delivery.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If multiple therapeutic factors (light, electromagnetic field, electric current, dielectric barrier discharge, micro-vibrations, sound) are applied simultaneously with synchronous and synergistic stimulation, then the therapeutic effectiveness and cellular response are enhanced, but the device complexity and control difficulty increase significantly
Solution Approach 1:
The patent combines multiple therapeutic factors (light, electromagnetic field, electric current, dielectric barrier discharge, micro-vibrations, and sound) into a single integrated device that delivers all factors simultaneously through coordinated transducers and control systems, achieving synergistic therapeutic effects while managing complexity through unified architecture
Solution Approach 2:
The device is designed as a multi-functional system capable of delivering six different types of therapeutic stimulation through a single platform, with each transducer type serving its specific function while being controlled by a centralized system that coordinates all outputs
2Measurement precision
If real-time monitoring and dosage control of energy delivery are implemented, then the safety and precision of treatment are improved, but the device complexity and cost increase
Solution Approach 1:
The patent incorporates real-time monitoring systems that measure energy delivery parameters and provide feedback to the control system, enabling dynamic adjustment of stimulation dosages to ensure precise treatment while maintaining safety through continuous monitoring
Solution Approach 2:
The patent replaces manual dosage adjustment mechanisms with automated electronic control systems that use software algorithms to calculate and deliver precise energy dosages based on pre-programmed treatment protocols and real-time tissue response monitoring
3Reliability
If frequency- and amplitude-modulated pulse profiles are applied to establish therapeutic resonant energy pathways, then the cellular absorption and metabolic revitalization are enhanced, but the energy consumption and control requirements increase
Solution Approach 1:
The patent employs periodic pulse profiles with specific frequency and amplitude modulation patterns that create resonant effects in target tissues, enhancing cellular absorption of therapeutic energy while using intermittent delivery to reduce overall energy consumption compared to continuous stimulation
Solution Approach 2:
The system dynamically adjusts frequency and amplitude parameters of the pulse profiles based on tissue response and treatment stage, optimizing resonant energy pathway establishment while minimizing energy consumption by using lower amplitudes when full power is not required
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 tissue revitalization, regenerative processes, pain reduction, and cellular metabolism, while allowing precise control over energy delivery, improving the efficacy and safety of non-invasive treatments for conditions such as injuries, pain, and infections.
Implementation Method 1
frequency- and amplitude-modulated impulse profiles, light, electromagnetic field, electric current, dielectric barrier discharge and its constituents, micro-vibrations, sound
Implementation Method 2
The principle of resonance implies cellular absorption of the introduced electromagnetic energy and vibrations or their harmonics. In this way, interfering frequencies can be imprinted into cells
Implementation Method 3
dielectric barrier discharge have been used for more than a century as effective therapeutic factors and energy carriers, which, among many properties, are capable of eliminating pathogens and stimulating innate regenerative processes of living organisms
Implementation Method 4
The most common non-thermal mechanism for electromagnetic fields and the tissues is the effect of cellular excitation of ion exchange (movement of calcium and other ions) across voltage channels that are sensitive to oscillating electric fields
Implementation Method 5
The therapeutic use of currents on tissues has been shown to activate cellular organelles responsible for cellular activity and cellular energy levels, i.e. to increase the concentration of ATP in cells
Implementation Method 6
When they absorb the light of a certain wavelength, such molecules activate or produce the energy necessary for their function or activity. These processes are recognized as photoactivation or photobiomodulation
Implementation Method 7
There is evidence that all living cells generate their micro-vibrations and can absorb externally imposed vibrations, more precisely mechanical or acoustic impulses. Therapeutic use of sound and micro-vibrations is associated with treatment in physical therapy to increase blood supply, lymphatic drainage, and tissue oxygenation
Data Source
AI summary
The inventors have developed a device for non-invasive treatment of diseases and conditions of living organisms (10) and a methodology for the use of plasma electrophysical stimulation coupled to resonance for the synchronous and synergistic application of several different physical stimuli, including light, electromagnetic field, electric current, dielectric barrier discharge, micro-vibrations and sound, which can operate at different cellular or tissue levels for the purpose of extended and more comprehensive stimulation of the target treated tissue. These factors are generated locally at the site of application, and the electromagnetic field along with electric currents allow a non-invasive application of stimulation by establishing a therapeutic resonant energy pathway (108) between the points of application of the device on the surface of the treated organism by affecting deeper located parts of the organism. In doing so, the resonance effects of these factors can be achieved by adjusting impulse profiles used for their generation. The present device also enables real-time monitoring of the treated tissue response, as well as dose control, and precise positioning of the impulse profile sources during treatment.