Numerical Simulation of Cyber-physical Biosensor Systems on the Basis of Lattice Difference Equations

V. Martsenyuk, Poland Automatics, A. Kłos-Witkowska, A. Sverstiuk, Oksana Bahrii-Zaiats
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Abstract

: Cyber physical systems (CPS) include a lot of high complexity computing such as dynamic analysis and verification of continuous dynamic property, analysis and verification of real-time property, analysis and verification of spatial property, scheduling and fault tolerance. In this paper, some of the research directions that we are taking toward addressing some of the challenges involved in building cyber physical systems have been described. Taking into account the features of the cyber-physical sensor systems, the basic model has been modified. Lattice images in biopixels have been modified according to the laws of discrete dynamics. The developed models take into account the interaction of biopixels with each other by antigen diffusion. The comparative analysis of CPS models on rectangular and hexagonal lattices using differen се equations has been considered in the work. The results of numerical simulations in the form of phase plane images and lattice images of the probability of antigen to antibody binding in the biopixels of cyber-physical biosensor systems for antibody populations relative to antigen populations have been received in the paper. The comparative analysis of the results of numerical modeling of mathematical models of cyber-physical biosensor systems on rectangular and hexagonal lattices using lattice difference equations with delay has been considered.
基于格差分方程的信息物理生物传感器系统数值模拟
网络物理系统(Cyber physical system, CPS)包含了大量的高复杂度计算,如连续动态特性的动态分析与验证、实时特性的分析与验证、空间特性的分析与验证、调度与容错等。在本文中,描述了我们正在采取的一些研究方向,以解决构建网络物理系统所涉及的一些挑战。考虑到网络物理传感器系统的特点,对基本模型进行了修正。根据离散动力学的规律对生物像素中的点阵图像进行了修正。开发的模型考虑了生物像素之间通过抗原扩散的相互作用。本文考虑了矩形格和六边形格上使用不同的方程的CPS模型的比较分析。本文以相平面图像和晶格图像的形式对网络物理生物传感器系统中抗原与抗体结合的概率进行了数值模拟,得到了抗体群体相对于抗原群体的结果。用带延迟的格差分方程对矩形和六边形格上的信息物理生物传感器系统的数学模型进行了数值模拟,并对结果进行了比较分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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