System and method of measuring millimeter wave of cold atmospheric pressure plasma

A method of analyzing multiple radio signals and detecting a biofield torsion wave signal, the method comprising:

• positioning a non-thermal plasma array to create an interface between the plasma array and a surface of a biological organism;
• generating high frequency millimeter wave radio waves by applying a potential gradient across a first electrode in the non-thermal plasma array and a second electrode in the non-thermal plasma array to generate plasma that interacts with biofield torsion waves emitted at the surface to produce the high frequency millimeter wave radio signals;
• receiving the millimeter wave radio signals with a detector, wherein receiving the millimeter wave radio signals comprises positioning a microwave antenna of the detector to receive radio carrier wave signals generated at the interface between the surface of the biological specimen and the plasma array;
• and
• causing the detector to produce, from the radio carrier wave signals, a digital output identifying the millimeter wave radio signals, wherein causing the detector to produce the digital output comprises:
• utilizing the microwave antenna to concentrate the radio carrier wave signals to produce a concentrated radio signal;
• selectably applying one of a linear polarization, a left-hand circular polarization, and a right-hand circular polarization to the concentrated radio signal to produce polarized millimeter wave signals with a switchable polarizer;
• converting the polarized millimeter wave signals to a down-sampled intermediate frequency signal, the conversion process comprising:
• receiving the polarized millimeter wave signals with a millimeter-wave spectrum receiver module and producing sliding intermediate frequency I/Q signals as output;
• receiving the sliding intermediate frequency I/Q signals with a quadrature coupler,
• combining, with the quadrature coupler, the sliding intermediate frequency I/Q signals into a first mixing product and a second mixing product, wherein the first mixing product is a high sideband intermediate frequency and the second mixing product is a low sideband intermediate frequency;
• and
• selecting the high sideband intermediate frequency or the low sideband intermediate frequency as the down-sampled intermediate frequency signal;
• and
• converting the down-sampled intermediate frequency signal into a digital signal used to produce the digital output.