Chromatography™ And Radiography™

Light Emitting Diode (LED) white lights emulate sunlight by producing all electromagnetic wave harmonics - 2^32 in total, spanning all spectral bands which can be semiconductor-filtered by electrical components or devices.

A dimmable, 1 600 lm LED bulb will shine a bright and non-blinding, white light over a human body, for visual reference, while illuminating the volume of the body, from the front - through and past the back of the body, or vice-versa in body orientation.

The opportunity allows the body to be scanned by receiving the photonegative, invisible electromagnetic radiation on the darker side of the body. A simple test of the logic is that some radiation must be absorbed, continuing to radiate the remaining light spectrum through. The photonegative spectrum continues through, past the object.

Digital chromatography reveals that every colour (wavelength spectrum) has an opposite spectrum where the digital spectrum is numerically mirrored (see Example 1, below). Microsoft’s 8 bit ASCII colour code is 8 digits long. So white light is 11111111 and black is 00000000. Any colour coded as 10100011 has a chromatic opposite of 01011100.

They are the equivalent of the longest wavelength minus the alternative wavelength for the same frequency.

Example 1

Frequency is the same in different relativistic frames, where wavelength and speed - including relative light speed - will change proportionately.

Δ λ [ k ] = Δ v [ k ] / f ,

( c - v [ k + i ] ) / f

c / f - v [ k + i ] / f

λ [ max ] - λ [ k + i ]

The ASCII colour code obeys Pauli’s Principle. For each binary bit stream or binary string there is a morriored of complimentary binary string or binary wave of bits with the alternative bit sequence seen in the complimentary wave. The red wave’s compliment is the cyan wave and it corresponds completely in ASCII.

The absorption spectrum is the opposite of the reflection spectrum. In simpler terms the emissions spectrum is the reflection spectrum. They can each be obtained more easily from the collection of the reflective spectrum. Light can be reflected off gases to reveal what colours they absorb or filter. The author proposes that the example of the Van Allen Belt is a smoothly continuous field of gas. If that is true then Earth’s space extends past the International Space Station (ISS).

If the Van Allen Belt was a field of electromagnetic radiation it would register a response with a powerful electromagnet compass, corresponding to localised field strength. A gas, alternatively, would be responsible for the filtering or absorption of cyan light, to reflect the opposite yellow light among the other unabsorbed spectrum, from the original full or continuous spectrum of white light from nature’s star light (our sun).

Current silicon, camera technology is financially and technologically expensive for the fulfilment of the light collection purpose. A replacement metal, replacement technology is proposed, in the posted article, Universal Photoelectric Scanner. Carbide camera plating would capture the image. The chromatographic opposite colours would emerge if the entire signal was to parse a binary or square wave amplification inverter. See Logic Inverter Hardware/Device post.

Wavelength can be computer-amplified by multiplying a scalar or harmonic variable by the original wavelength array. It will contract or rarify the wavelengths. That can make the invisible wavelengths visible in a simple, logical modality.

Genetic samples can be filtered by creating a tabulation of the measured wave spectrum parameters, including intensity. Radio and infrared are the most useful wavelengths sets for analysis of organic chemicals.

The technology is ideal for medical diagnosis, materials analysis - including minerals. It may also be used to amplify standing waves or resonant frequency waves in biological materials to destroy them on mass or in concentration.

Minerals exploration application will entail the broad spectrum ground penetrating radar imaging (for conductive metals) coupled with heavily amplified computer, chromatographic analysis.

The imager will be effectively a broad spectrum, high gain, radio emitter with a digitally controlled, reflecting telescope, relaying its imagery to a digital camera and computer. The emitter should project a high gain amplified portion of the radio spectrum generated by a diode.

An aerial drone, ATMOSSAT (See Xerqon blog article) or human occupied aircraft, with the equipment and a wide angle scanning capability, will perform the ground survey efficiently. The ATMOSSAT would perform its best with long exposure photography. Drone squadrons can scan in a parallel array - eg a row.

Imaging will be of earth where rich deposits of known minerals are already mined. It should also include immediate surrounding earth. Each image is dimmed by an amplification factor equal to the number of total images - the same number per location. The dimmed surface soil images will be overlaid together or superpositioned to form an aggregate image.

The concentrated or most intense and the most abundant image elements are the elements or the subset to search for in future minerals prospecting observations. The imaging can be visually calibrated with Adobe software.

The development race to the zenith of the technology’s commercialised capability is nothing short of exciting and necessarily timely.

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