Time-Leveled Hypersoft Matrix, Level Cuts, Operators, and COVID-19 Collective Patient Health State Ranking Model

Shazia Rana, M. Saeed, Badria Almaz Ali Yousif, F. Smarandache, H. A. Khalifa
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Abstract

This article is the first step to formulate such higher dimensional mathematical structures in the extended fuzzy set theory that includes time as a fundamental source of variation. To deal with such higher dimensional information, some modern data processing structures had to be built. Classical matrices (connecting equations and variables through rows and columns) are a limited approach to organizing higher dimensional data, composed of scattered information in numerous forms and vague appearances that differ on time levels. To extend the approach of organizing and classifying the higher dimensional information in terms of specific time levels, this unique plithogenic crisp time-leveled hypersoft-matrix (PCTLHS matrix) model is introduced. This hypersoft matrix has multiple parallel layers that describe parallel universes/realities/information on some specific time levels as a combined view of events. Furthermore, a specific kind of view of the matrix is described as a top view. According to this view, i-level cuts, sublevel cuts, and sub-sublevel cuts are introduced. These level cuts sort the clusters of information initially, subject-wise then attribute-wise, and finally time-wise. These level cuts are such matrix layers that focus on one required piece of information while allowing the variation of others, which is like viewing higher dimensional images in lower dimensions as a single layer of the PCTLHS matrix. In addition, some local aggregation operators are designed to unify i-level cuts. These local operators serve the purpose of unifying the material bodies of the universe. This means that all elements of the universe are fused and represented as a single body of matter, reflecting multiple attributes on different time planes. This is how the concept of a unified global matter (something like dark matter) is visualized. Finally, to describe the model in detail, a numerical example is constructed to organize and classify the states of patients with COVID-19.
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时间级超软矩阵、级别切割、操作符和COVID-19集体患者健康状态排序模型
本文是在包括时间作为变化的基本来源的扩展模糊集理论中制定这种高维数学结构的第一步。为了处理这种高维信息,必须建立一些现代数据处理结构。经典矩阵(通过行和列连接方程和变量)是组织高维数据的一种有限方法,这些高维数据由多种形式的分散信息和在时间级别上不同的模糊外观组成。为了扩展高维信息在特定时间层次上的组织和分类方法,提出了一种独特的多生脆时间层次超软矩阵(PCTLHS)模型。这个超软矩阵有多个平行层,它们以事件的组合视图的形式描述某些特定时间层面上的平行宇宙/现实/信息。此外,矩阵的一种特定视图被描述为顶视图。根据这一观点,引入了一级切割、次级切割和次级切割。这些层次切割首先对信息簇进行分类,然后是主题分类,最后是属性分类,最后是时间分类。这些级别切割是这样的矩阵层,它专注于一个所需的信息片段,同时允许其他信息的变化,这就像在较低维度中将高维图像视为PCTLHS矩阵的单层。此外,还设计了一些局部聚合算子来统一i级切割。这些局部操作者服务于统一宇宙物质体的目的。这意味着宇宙的所有元素被融合并表现为一个单一的物质体,在不同的时间平面上反映出多种属性。这就是统一的全球物质(类似暗物质)的概念是如何可视化的。最后,为了更详细地描述模型,构造了一个数值例子来组织和分类COVID-19患者的状态。
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