Small Dipole Antenna for ELF Resonance Detection
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Solution Overview
Problem
Existing sensors are too large to conveniently measure Extremely Low Frequency (ELF) resonances in the human body, which are essential for detecting disease in organs and limbs, due to unwanted noise voltage issues and size constraints.
Innovation Solution
A system comprising a small ELF electric field dipole antenna and a diagnostic unit that processes the electrical sinoatrial signal to generate a frequency spectrum, allowing for the analysis of organ and limb conditions by comparing it to a standardized normal spectrum, using a computer-based spectrum analyzer and diagnostic software.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Measurement precision
If large antennas (e.g., 36.5 meter vertical mast) are used to measure ELF resonance, then measurement precision is improved, but device complexity and ease of operation deteriorate
Solution Approach 1:
The patent uses a small antenna that copies the essential function of large ELF antennas by detecting the electrical sinoatrial signal from the heart, which serves as a natural reference for organ resonance frequencies. This allows measurement of organ ELF resonance without requiring large external antennas
Solution Approach 2:
The patent introduces the heart's electrical sinoatrial signal as an intermediary reference. By using the heart's own electrical signal (which naturally resonates with connected organs), the system avoids the need for large external antennas while still achieving accurate ELF resonance measurement
2Measurement precision
If antenna length is increased to stabilize the antenna for ELF measurement, then measurement precision is improved, but device complexity and ease of manufacture worsen
Solution Approach 1:
Instead of using a large physical antenna to detect ELF fields, the patent uses a small antenna that detects the electrical sinoatrial signal from the heart. This copied approach achieves the same measurement goal without the manufacturing complexity of large antennas
Solution Approach 2:
The patent changes the measurement parameter from direct ELF field detection using large antennas to detection of the electrical sinoatrial signal using a small antenna. This parameter change allows standard small antenna components to be used instead of specialized large antennas
3Ease of operation
If small antennas are used for measuring ELF resonance in the human body, then ease of operation is improved, but measurement precision deteriorates due to unwanted noise voltage
Solution Approach 1:
The heart's electrical sinoatrial signal serves as an intermediary that carries organ resonance information. By detecting this natural biological signal instead of relying on external ELF field measurements, the system achieves accurate measurement with small antennas without suffering from noise voltage issues
Solution Approach 2:
The patent copies the function of large ELF antennas by detecting the electrical sinoatrial signal, which naturally resonates with organs. This allows small antennas to achieve the measurement precision that would otherwise require large antennas
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 measurement of disease in organs and limbs by analyzing the amplitude, bandwidth, and quality factor of frequency components, providing a non-invasive method for diagnosing health conditions and stress levels, including depression, ADHD, and lie detection.
Implementation Method 1
a sensor for sensing an electrical sinoatrial signal produced by a human heart
Implementation Method 2
a spectrum analyzer for processing the electrical sinoatrial signal and generating a frequency spectrum based on the electrical sinoatrial signal
Implementation Method 3
Each organ and limb resonates in a different frequency
Data Source
AI summary
A sensor, such as an antenna, detects an electrical sinoatrial signal produced by the human heart. A spectrum analyzer then processes the electrical sinoatrial signal to generate a frequency spectrum comprising a plurality of frequency components associated with different organs. A diagnostic unit then analyzes the frequency spectrum and compares the frequency spectrum to a standardized normal spectrum to determine the condition of the organs. In particular, the amplitude and the bandwidth of the frequency components may be compared to the standardized normal spectrum. The system monitors the relationship between the electromagnetic energy of the heart, organs, limbs, and the brain.