Design of a 4-Bit magnitude comparator using SIMULINK

In this paper, the design of a 4-bit magnitude comparator using Simulink is presented. An overview of a magnitude comparator is carried out in the first section, in terms of its application in engineering. The second section presents the methodology of the design; thus, a closer look at the magnitud...

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Main Author: P. Y. Dibal
Format: Article
Language:English
Published: University of Maiduguri 2013-08-01
Series:Arid Zone Journal of Engineering, Technology and Environment
Online Access:http://azojete.com.ng/index.php/azojete/article/view/151/126
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spelling doaj-11b8fa242e4045499add02c326f16aac2020-11-25T02:56:48ZengUniversity of MaiduguriArid Zone Journal of Engineering, Technology and Environment2545-58182545-58182013-08-019916Design of a 4-Bit magnitude comparator using SIMULINKP. Y. Dibal0Department of Computer Engineering, University of Maiduguri, Maiduguri, NigeriaIn this paper, the design of a 4-bit magnitude comparator using Simulink is presented. An overview of a magnitude comparator is carried out in the first section, in terms of its application in engineering. The second section presents the methodology of the design; thus, a closer look at the magnitude comparator is achieved by looking at its block diagram, its truth table, and the equations which characterize the truth table. The second section also presents the Simulink modelling environment, with a snapshot of its interface and functions. The implementation of the design, using Simulink, is also presented in the second section. The design was achieved by splitting the design of the circuit into three stages. The third section of the paper presents the results and discussion. The results were obtained by simulating the magnitude comparator circuit with three sets of data. In the first set of data, data A was equal to data B. In the second set of data, data A was greater than data B. In the third set of data, data A was less than data B. The simulation produced the expected results in the case of each data set, thus verifying the accuracy of the design. The final part of the paper presents the conclusion arrived at, at the end of the design.http://azojete.com.ng/index.php/azojete/article/view/151/126
collection DOAJ
language English
format Article
sources DOAJ
author P. Y. Dibal
spellingShingle P. Y. Dibal
Design of a 4-Bit magnitude comparator using SIMULINK
Arid Zone Journal of Engineering, Technology and Environment
author_facet P. Y. Dibal
author_sort P. Y. Dibal
title Design of a 4-Bit magnitude comparator using SIMULINK
title_short Design of a 4-Bit magnitude comparator using SIMULINK
title_full Design of a 4-Bit magnitude comparator using SIMULINK
title_fullStr Design of a 4-Bit magnitude comparator using SIMULINK
title_full_unstemmed Design of a 4-Bit magnitude comparator using SIMULINK
title_sort design of a 4-bit magnitude comparator using simulink
publisher University of Maiduguri
series Arid Zone Journal of Engineering, Technology and Environment
issn 2545-5818
2545-5818
publishDate 2013-08-01
description In this paper, the design of a 4-bit magnitude comparator using Simulink is presented. An overview of a magnitude comparator is carried out in the first section, in terms of its application in engineering. The second section presents the methodology of the design; thus, a closer look at the magnitude comparator is achieved by looking at its block diagram, its truth table, and the equations which characterize the truth table. The second section also presents the Simulink modelling environment, with a snapshot of its interface and functions. The implementation of the design, using Simulink, is also presented in the second section. The design was achieved by splitting the design of the circuit into three stages. The third section of the paper presents the results and discussion. The results were obtained by simulating the magnitude comparator circuit with three sets of data. In the first set of data, data A was equal to data B. In the second set of data, data A was greater than data B. In the third set of data, data A was less than data B. The simulation produced the expected results in the case of each data set, thus verifying the accuracy of the design. The final part of the paper presents the conclusion arrived at, at the end of the design.
url http://azojete.com.ng/index.php/azojete/article/view/151/126
work_keys_str_mv AT pydibal designofa4bitmagnitudecomparatorusingsimulink
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