Methods for employing digital root techniques to generate computer-input data
A methodology in accordance with the present invention is directed toward optimizing the operational parameters of a radiation unit which will be used in a protocol to influence a target tissue (cellular structure), in a predetermined manner. Specifically, digital root techniques are used for this purpose. To do this, the digital root is determined for a number that is characteristic of a cellular structure attribute that is to be influenced by radiation. This digital root is then expanded into the range of a selected operational parameter for the radiation unit. Thus, a number in the operational range of the radiation unit is selected to establish an appropriate radiation parameter for influencing the cellular structure.
1. A method for establishing a radiation protocol to influence cellular structure in a tissue, the method comprising the steps of:
identifying a target tissue;
choosing a cellular structure in the target tissue to be influenced; attributing a number, n, to the cellular structure chosen during the choosing step, wherein n is characteristic of a physical attribute of the cellular structure;
repeating the attributing step an m number of times to attribute a number nm for each of m different attributes of the cellular structure, wherein m is a number from 1 to m;
calculating a digital root, dr(nm), for each nm;
conforming a digital root dr(nm) selected from the calculating step with a digital root dr(np) of a number Np, wherein the magnitude of the number Np is characteristic of an operational parameter for a radiation unit, wherein Np is within the operational range of the radiation unit and there are a p number of operational parameters, and further wherein p is a number from 1 to p;
determining an optimal congruence based on the conforming step for each combination of nm and Np; and
operating the radiation unit with the Np of the determining step to influence cellular structure of the tissue.
2. The method of claim 1 wherein the conforming step comprises the steps of:
setting the digital root for each Np, dr(Np), equal to the digital dr(nmJ obtained during the calculating step; and expanding d(nm) into the operational range for Np.
3. The method of claim 1 wherein the conforming step comprises the steps of:
comparing dr(Np) with dr(nm);
incrementing/decrementing dr(Np) until dr(Np) equals dr(nm); and
selecting an Np for operation of the radiation unit, wherein a selection of Np is based on dr(Np) being set equal to drrnmJ of the chosen cellular structure dr(nm)=dr(Np).
4. The method of claim 1 further comprising the step of weighting each number nm according to its susceptibility for influence by a radiation.
5. The method of claim 1 further comprising the step of varying Np within its operational range.
6. The method of claim 1 further comprising the step of selecting nm from the group consisting of cell type, resonant frequency, size, chemical structure, anatomical structure, atomic number and atomic weight.
7. The method of claim 1 further comprising the step of selecting Np from the group consisting of wavelength (λ), intensity (I), pulse duration, focal spot size, scan rate, fluence and phase.