A particle model needs fundamental particles, and a processing model needs core processes. Every CPU has a command set, of the core processes it can do. For example, if a calculator had “add one” as a core command, to add six it would just add one six times. As computers developed, databases and networks added more core commands to give complex instruction set computing (CISC), but only recently was it realized that reduced instruction set computing (RISC) performs better, as fewer core processes run faster and there is less to go wrong. The ultimate RISC design is then one process that does everything, and the proposed core process for the quantum network is exactly that, namely:
Set the next value in a circle
This quantum process, to set values in a circle, is now proposed to underlie our universe, beginning with space and light. It is reliable, because each cycle ends where it began, so it can run indefinitely. When it runs at point, it generates positive-negative values to give a null result that can represent the nothing of space. When it runs at right angles to a surface, as our space is proposed to be, it is a transverse circle that can move to give sine waves to represent light. This one process can then give rise to both empty space and light, depending on the situation.
To represent light, the quantum process must be distributed over the points of its wavelength. In computing, a distributed process one that is divided between clients. Dividing this process across more points of space then represents light of longer wavelengths. Longer wavelength light then has a lower frequency, because a divided process runs slower, just as dividing a workforce among many jobs makes each slower. In Figure 3.11, one quantum process generates the entire electro-magnetic spectrum, which runs slower as wavelength increases. Note that the process in the figure isn’t physical and it just sets values, exactly as complex number theory says. Light then, in all its frequencies, is generated by one core process, divided more or less, moving on the quantum network.
In Figure 3.11, the quantum process (1) is distributed (2) between network points (3) that run at some frequency (4), and is passed on at the speed of light (5). It is a moving rotation that generates the sine wave of light, and when divided more or less can give any electro-magnetic wave length. Longer wavelengths divide the process more, so they run more slowly, at a lower frequency.
As a photon moves, each point in its wavelength runs the same process, but points at the front of the sine wave are just starting, while those at the back are finishing. Each network cycle, the process spreads to new points, leaving those behind to run to completion. As new points begin, others finish, so the total server processing demand per photon stays the same. Every photon in the electro-magnetic spectrum, whether a radio wave or a cosmic ray, is then the same quantum process distributed more or less. Since this same process is also the null processing of space, light is in effect space spread out and on the move.