Bioharmonic Detection System Using Tunable Resonator Circuits
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Solution Overview
Problem
Current technological systems lack the capability to effectively detect and measure low frequency electrical phenomena in biological systems and liquids, as these phenomena are part of a global and coherent electrical field rather than a directly chemical nature.
Innovation Solution
A bioharmonic signal detection system comprising a signal oscillator, a tunable resonator circuit, a ground plane resonator circuit, and an amplifier, configured to measure dynamic low frequency electrical fields surrounding biological systems and bioactive materials, using a variable square pulse wave generator and resonator circuits to detect and identify specific biological organisms, responses, and chemical interactions.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If conventional detection systems are used, then standard electrical measurements can be performed, but low frequency electrical phenomena in biological systems and liquids cannot be effectively detected
Solution Approach 1:
The patent changes the detection parameter from standard electrical frequency ranges to extremely low frequency (ELF) range below 500 Hz, specifically targeting the 1-476 Hz band. This parameter change enables the detection of bioharmonic signals that are characteristic of biological systems and liquids, resolving the inability of conventional systems to detect these low frequency phenomena.
Solution Approach 2:
The patent introduces resonator circuits as intermediary components that are tuned to specific bioharmonic frequencies. These resonators act as mediators between the biological sample and the detection system, amplifying and selecting the low frequency signals of interest while filtering out other frequencies, thus enabling effective detection of biological electrical phenomena.
2Reliability
If standard electrical field measurement methods are used, then conventional electromagnetic signals can be detected, but structured low frequency electric field waves in biological matter remain undetectable
Solution Approach 1:
The patent employs resonator circuits that utilize electrical resonance at specific low frequencies to detect bioharmonic signals. The resonators are tuned to match the natural frequencies of biological systems, creating a resonant condition that amplifies the weak low frequency signals and makes them detectable above the noise floor, thereby improving reliability without excessive complexity.
Solution Approach 2:
The patent uses a tunable resonator circuit that can dynamically adjust its resonance frequency to match different bioharmonic frequencies of interest. This dynamic tuning capability allows the system to adapt to different biological samples and detection requirements, maintaining high detection accuracy across various applications while managing measurement complexity through controlled adjustability.
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 the detection and identification of biological systems, responses to stimuli, and chemical interactions, providing qualitative and quantitative measurements for agricultural, food, and water quality assessments, as well as contamination detection, through the measurement of structured low frequency electric field waves.
Implementation Method 1
an antenna that is coupled to a sample to receive the structured field
Implementation Method 2
a tunable resonator circuit that receives a signal at its input; a signal from the signal oscillator, wherein the tunable circuit further comprises an antenna that is coupled to a sample to receive the structured field; a ground plane resonator circuit that receives at its input an output from the tunable resonator
Data Source
AI summary
The present invention relates to a method and apparatus intended for the detection of low frequency electric waves that can be extracted from water, organic liquids and biological matter. This field phenomenon, that we here refer to here as a “bioharmonic”, is an active frequency, or harmonically related series of frequencies, that are a result of a dynamic interplay of natural processes including physical, chemical and electromagnetic interactions. We have discovered that these interactions influence the organization of signal waveform characteristics at very low frequencies. The apparatus produces a low frequency electrical wave that is coupled to a liquid or solid sample by way of a coupling electrode having a very high impedance. As the detected signal also displays field properties, the electrode does not need to be in contact with the sample in order to extract a unique signal. The resultant signal is rectified and passed through a logic gate where it is conditioned using a low pass filter on the gate output stage before amplification. A darlington type transistor is used to amplify the signal by a minimum factor of twenty thousand.