Plasma Emitter Array Converts Torsion Waves to Electromagnetic Signals
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Solution Overview
Problem
Current technologies are unable to reliably detect and analyze vital fields emitted by organisms due to the absence of dynamic magnetic components, which prevents the induction of currents in conductors and limits the detection capabilities of existing devices.
Innovation Solution
A putative energy field analyzer utilizing a dielectric barrier discharge plasma emitter array converts torsion waves from vital fields into electromagnetic waves, which can be detected using sensitive millimeter-wave electronics, and further analyzed in the VHF and UHF frequency ranges through narrow-band spectrum analysis.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If conventional electromagnetic detection devices are used, then the device structure is simple and easy to manufacture, but they cannot detect vital fields because vital waves lack a dynamic magnetic component to induce current
Solution Approach 1:
The patent introduces a plasma array as an intermediary medium between the vital field source and the detector. The plasma converts the static torsion field into dynamic electromagnetic waves that can be detected by conventional electronics, solving the detection problem without requiring complex direct sensing equipment
Solution Approach 2:
The patent replaces conventional electromagnetic induction-based detection with a plasma-mediated detection system. Instead of relying on magnetic field induction in conductors, the system uses plasma to transduce the field into detectable electromagnetic radiation
2Measurement precision
If Kirlian photography is used to detect vital fields, then the detection method can visualize coronal discharge patterns, but the results are met with skepticism and cannot provide real-time quantitative analysis
Solution Approach 1:
The patent replaces photographic detection with electronic plasma-based detection. The plasma array converts field information into electrical signals that can be processed in real-time, enabling quantitative analysis rather than static visual records
Solution Approach 2:
The system incorporates real-time electronic detection and signal processing that provides immediate feedback about the detected field characteristics, enabling dynamic analysis and measurement rather than static photographic capture
3Reliability
If plasma emitters are used to convert torsion waves to electromagnetic waves, then vital fields become detectable, but the plasma array requires high voltage and complex fabrication
Solution Approach 1:
The patent divides the plasma generation system into discrete micro-plasma elements arranged in an array. Each element can be independently fabricated and controlled, simplifying the overall manufacturing process while maintaining the collective detection capability
Solution Approach 2:
The patent optimizes plasma generation parameters including using dielectric barrier discharge geometry and selecting appropriate operating frequencies to reduce the voltage requirements and simplify the power supply architecture
4Reliability
If non-thermal plasma is applied to living organisms, then beneficial health effects are observed, but the mechanisms are not fully explained by conventional science and require further investigation
Solution Approach 1:
The patent implements real-time detection systems that provide feedback about the plasma-organism interaction, enabling measurement and analysis of the energetic effects to better understand the mechanisms behind observed health benefits
Data Source
AI summary
A device for detecting and analyzing vital fields includes: a dielectric barrier discharge array fabricated on a thin substrate with low dielectric loss; an air permeable sheet for electrical insulation from the skin; a transformer for generating sufficient AC voltage to cause air breakdown in the array; a signal transformer and bypass capacitor for isolating the radio frequency current from the plasma discharge; circuitry for amplification and narrow-band spectrum analysis of the plasma discharge current. The amplified signal from the plasma discharge current is gated to include only signal from the part of the drive waveform where plasma discharge predominantly occurs. Frequency converters reduce the complexity of narrow-band spectrum analysis; spectrum analysis is done by Fast Fourier Transform analysis of the frequency converter outputs. The different FFT results are compared and analyzed to aid the user with the correct array placement on the body, and the detection of medical conditions.


