Use this URL to cite or link to this record in EThOS: https://ethos.bl.uk/OrderDetails.do?uin=uk.bl.ethos.290780
Title: An investigation into the properties of multi-valued spectral logic
Author: Tokmen, V. H.
ISNI:       0000 0001 3534 4426
Awarding Body: University of Bath
Current Institution: University of Bath
Date of Award: 1980
Availability of Full Text:
Access from EThOS:
Access from Institution:
Abstract:
This thesis is concerned with the properties of a particular discrete transform, and its applications to the classification of multi-valued ("m-ary" ) logic functions and m-ary combinatorial logic analysis and synthesis. The transform used is composed of a complete set of orthogonal functions, namely Chrestenson Functions, and the methods developed are applicable for all m, m = 2, 3, ... . The definition of multi-valued systems and some examples of multivalued circuits are given in chapter 1. The necessity of a generalised design method which is not based on a particular algebra is considered and the scope of the thesis is stated. Chapter 2 introduces the algebraic notation, and continues to show the expansions of fully specified m-ary functions in (i) Lagrange form, (ii) generalised Reed-Muller form, and (iii) as polynomials' over the field of real numbers. Chapter 3 is an application of the mathematical developments covered in the previous chapter. Based on generalised Reed-Muller coefficients a realisation of m-ary functions using Universal-Logic-Modules is described. The realisation in this case is restricted to m being a power of a prime. The complex polynomial expansion of m-ary functions is considered in chapter 4. The coefficient set obtained is termed the "spectrum" of the given function. The effects of various operations in the function domain on the spectral values are investigated, and a classification of m-ary functions is described. Applications of spectral properties developed for m-ary combinatorial logic design are shown in examples. The implementation of any m-ary function involves some form of decomposition using physically available logic functions. The spectral properties developed in chapter 4 are further pursued in chapter 5 with an investigation into the relationships between the spectra of the logic functions involved in such a decomposition, and the spectrum of the overall function being realised. With the development of these spectral decomposition relationships, the range of tools for the spectral analysis of m-ary combinatorial logic is completed. Throughout this thesis emphasis is placed on the generality of techniques developed, such that these techniques may be applicable to whatever higher-valued logic microelectronic circuit realisations may evolve in the future.
Supervisor: Not available Sponsor: Not available
Qualification Name: Thesis (Ph.D.) Qualification Level: Doctoral
EThOS ID: uk.bl.ethos.290780  DOI: Not available
Keywords: Electronics and electrical engineering
Share: