Variable Frequency Electromagnetic Emission for Liquid Media Treatment
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Solution Overview
Problem
Existing methods for treating liquid and gaseous media using electromagnetic emission are not universal, are limited by specific frequency ranges, and require complex devices that can restrict flow rates and treat only partial volumes of media, making them inefficient and difficult to install in existing piping systems.
Innovation Solution
A method and device that generate and adjust electromagnetic emission frequencies to synchronize with the precession frequency of protons in the medium, using a silicon-based interface to emit and measure energy differences, allowing for both ionizing and non-ionizing emissions, and enabling treatment of the entire volume of flowing media without flow rate restrictions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Adaptability or versatility
If electromagnetic emission with fixed frequency ranges is used for treating liquid and gaseous media, then specific treatment effects can be achieved, but the method is not universal and cannot treat a wide range of media effectively
Solution Approach 1:
The patent applies dynamics by making the electromagnetic emission frequency variable rather than fixed. The control unit dynamically adjusts the frequency of electromagnetic emission based on the type of medium being treated, enabling the same device to universally treat different liquid and gaseous media by adapting its operating parameters in real-time.
Solution Approach 2:
The patent implements parameter changes by modifying the frequency parameter of electromagnetic emission. The control unit changes the frequency parameter according to the specific medium requirements, allowing the treatment method to be universally applicable to various media while maintaining optimal treatment effectiveness for each.
2Reliability
If complex devices with multiple components are used for electromagnetic treatment, then treatment effectiveness can be improved, but the device becomes difficult to install in existing piping systems and restricts flow rates
Solution Approach 1:
The patent applies taking out by extracting the essential treatment function into a compact electromagnetic emission device that can be independently installed in piping systems. Rather than requiring complex multi-component systems, the invention isolates the core treatment mechanism into a self-contained unit that generates electromagnetic emission directly within the medium flow path.
Solution Approach 2:
The device incorporates dynamic frequency adjustment capability that allows it to adapt to different treatment requirements without requiring complex mechanical structures. This dynamic parameter control enables effective treatment while maintaining a simple, installable design suitable for existing piping systems.
3Volume of moving object
If electromagnetic emission treats only partial volumes of media, then device size can be reduced, but treatment efficiency and energy efficiency decrease
Solution Approach 1:
The patent applies segmentation by dividing the treatment process into controlled electromagnetic emission zones within the medium flow. The electromagnetic emission is applied in segments along the flow path, ensuring complete volume treatment while maintaining manageable device dimensions and high treatment efficiency through progressive energy transfer.
Solution Approach 2:
The invention implements continuity of useful action by maintaining continuous electromagnetic emission along the medium flow path. This ensures that the entire volume of media receives treatment continuously as it flows through the device, maximizing both the treated volume and treatment efficiency without requiring the medium to be stationary or repeatedly processed.
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 allows for automatic optimization of electromagnetic emission frequencies, treating a wide range of media with increased energy absorption and molecular changes, enhancing chemical and physical properties, and improving energy efficiency and environmental impact by treating the entire volume of media effectively.
Implementation Method 1
generate and adjust electromagnetic emission frequencies to synchronize with the precession frequency of protons in the medium, using a silicon-based interface to emit and measure energy differences
Implementation Method 2
automatic optimization of electromagnetic emission frequencies, treating a wide range of media with increased energy absorption and molecular changes
Data Source
AI summary
A method for physical treatment of liquid and gaseous media (15) is provided by means of electromagnetic emission with a variable frequency of emission which is in the form of electromagnetic pulses and is emitted into the flowing medium (15) from a space inside the medium (15). The electromagnetic emission with the specific frequency is emitted into the medium (15) through an interface made of a silicon-based material and passes through the medium. A difference of the energy of the generated electromagnetic emission and the energy of the electromagnetic emission passed through the medium (15) is determined, and based on the determined difference of the said energies, the specific frequency of the generated electromagnetic emission is adjusted to increase the difference of the said energies and to achieve in principle the maximum difference of the energies, thus achieving synchronisation of the frequency of the electromagnetic emission with a precession frequency of protons in the medium (15) and absorption of the energy of the electromagnetic emission by the medium (15). Furthermore, a device for the implementation of the aforementioned method is provided.