Putative energy field analysis using non-thermal plasma array
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.
1. A device for detecting and analyzing vital fields of an organism, the device comprising:
a dielectric barrier discharge array fabricated on a thin substrate with low dielectric loss;
an air permeable sheet for electrical insulation from skin of the organism;
a transformer for generating sufficient AC voltage to cause air breakdown in the array;
a signal transformer and a bypass capacitor for isolating a radio frequency current from a plasma discharge of the array; and
circuitry for amplification and narrow-band spectrum analysis of the radio frequency current to produce an amplified signal of a plasma discharge current, wherein:
the amplified signal from the plasma discharge current is gated based on a driving waveform to include only signal from the part of the drive waveform where plasma discharge predominantly occurs;
a multiplicity of frequency converters are used to reduce the complexity of the narrow-band spectrum analysis;
the spectrum analysis is done by Fast Fourier Transform (FFT) analysis of outputs of the multiplicity of frequency converters to produce a corresponding multiplicity of different FFT outputs; and
the different FFT outputs are compared and analyzed to aid a user of the device with correct placement of the array on the body organism for detection of medical conditions correlated to the different FFT outputs.
2. The device of claim 1 wherein the frequency converters are implemented as analog circuitry.
3. The device of claim 1 wherein the amplified signal is digitized by a high speed analog to digital converter and the frequency converters are implemented as digital down converters and decimating filters.
4. The device of claim 1 wherein the array is connected to the signal transformer through a length of coaxial cable.
5. The device of claim 4 wherein a series resistor is added to reduce signal reflections on the coaxial cable.
6. The device of claim 1 , further comprising:
a high voltage transformer in electrical communication with and driving the array; and
a drive control for the high voltage transformer, wherein the drive control for the high voltage transformer is integrated into an Application Specific Integrated Circuit (ASIC), along with the narrow-band spectrum analysis circuitry and an associated Central Processing Unit (CPU) for real-time analysis.
7. The device of claim 6 wherein the ASIC is connected to a transceiver for the purpose of using a smart phone as a secondary user interface.
8. The device of claim 6 , further comprising a micro-controller that is separate from the ASIC and that is configured to perform plasma control.
9. The device of claim 1 wherein the plasma discharge of the array is modulated by turning the AC voltage to the array on and off at a plasma modulation frequency and a set duty cycle.
10. The device of claim 9 wherein radio signals in the VHF and UHF frequency ranges, generated by plasma interaction with the organism, are detected for the purpose of adjusting the plasma modulation frequency.