Digital Root Techniques for Radiation Parameter Alignment
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Solution Overview
Problem
In radiation therapy, the complex and disparate numerical operational parameters of radiation units often fail to align congruently with the physical attributes of target tissues, making it difficult to establish effective protocols that can simply and cost-effectively influence cellular structures.
Innovation Solution
The use of digital root techniques to calculate and align congruent numerical attributes for both cellular structures and radiation operational parameters, allowing for the selection of appropriate radiation settings that interact effectively with tissue characteristics.
Engineering Contradictions & Design Principles
Engineering Contradiction Analysis
1Reliability
If traditional radiation therapy protocols are used with standard operational parameters, then the treatment can be implemented, but the complex and disparate numerical parameters fail to align congruently with tissue attributes, reducing effectiveness
Solution Approach 1:
The patent applies parameter changes by transforming complex radiation operational parameters and tissue physical attributes into their digital root equivalents. This transformation modifies the numerical representation of parameters to a simplified form (digital root) that enables congruent alignment between radiation settings and tissue characteristics, thereby improving parameter alignment while maintaining operational effectiveness.
Solution Approach 2:
The digital root serves as an intermediary mechanism between complex radiation parameters and tissue attributes. By converting both sets of parameters into their digital root representations, the system creates a common numerical language that facilitates congruent alignment and effective protocol establishment without requiring direct manipulation of the complex original parameters.
2Loss of information
If complex numerical parameters are used to describe radiation operational characteristics and tissue attributes, then comprehensive information is captured, but the numbers become cumbersome and difficult to manipulate
Solution Approach 1:
The patent extracts the essential numerical information from complex parameters by calculating their digital roots. This extraction process isolates the core numerical characteristic of each parameter while discarding the cumbersome detailed representation. The digital root retains the essential information needed for parameter alignment and protocol establishment in a much simpler numerical form.
Solution Approach 2:
The patent segments the complex parameter representation into two parts: the original complex parameter (for comprehensive information) and its digital root equivalent (for easy manipulation). This segmentation allows the system to access detailed information when needed while using the simplified digital root for routine parameter alignment and protocol setup operations.
3Reliability
If numerous radiation operational parameters are selected to influence cellular structure, then treatment effectiveness can be optimized, but the protocol setup becomes more complex and time-consuming
Solution Approach 1:
The patent implements feedback through the digital root calculation process, where the numerical representation of tissue attributes and radiation parameters are continuously compared and adjusted. The digital root provides immediate feedback on parameter congruency, allowing for rapid protocol setup by automatically identifying aligned parameter combinations without requiring extensive manual adjustment and testing.
Data Source
AI summary
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.