A framework to express variant and invariant functional spaces for binary logic
A framework to express variant and invariant functional spaces for binary logic作者机构:Department of Information SecuritySchool of SoftwareYunnan UniversityKunming 650200China Conjugate Systems Kunming Ltd.Co.Kunming 650032China Department of Electrical and Electronic Engineering School of EngineeringThe University of MelbourneParkvilleVictoria 3010Australia
出 版 物:《Frontiers of Electrical and Electronic Engineering in China》 (中国电气与电子工程前沿(英文版))
年 卷 期:2010年第5卷第2期
页 面:163-172页
学科分类:07[理学] 0701[理学-数学] 070101[理学-基础数学]
基 金:This work was supported in part by Information Security Professional Education System Constructions from Yunnan University and Yunnan Education Organization and Writing Environment in Conjugate Systems Kunming Ltd.Co
主 题:two-dimensional(2D)organization conjugate symmetry cellular automata(CA) permutation meta-state vector space truth table(TT) variant table(VT) invariant table(IVT) variant logic optimization global coding vector function space
摘 要:A new framework has been developed to express variant and invariant properties of functions operating on a binary vector *** framework allows for manipulation of dynamic logic using basic operations and *** representations of binary functional spaces are *** ideas of binary functional spaces are extended and additional conditions are added to describe new function representation schemes:F code and C *** of the proposed functional space representation schemes were *** was found that the complete representation for any set of functions operating on a binary sequence of numbers is larger than previously *** complete representation can only be described using a structure having a space of size 2^(2n)×2^(n)!for any given space of functions acting on a binary sequence of length *** framework,along with the proposed coding schemes provides a foundational theory of variant and invariant logic in software and electricelectronic technology and engineering,and has uses in the analysis of the stability of rule-based,dynamic binary systems such as cellular automata.