Hybrid artificial bee colony algorithm with branch and bound for two–sided assembly line balancing

The two-sided assembly-line balancing (2SALB) is widely used in various production systems especially in high-volume large-size products. However, not many types of research are focused on the study of the 2SALB problem. Recently, the artificial bee colony (ABC) algorithm was used in the solution pr...

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Main Author: Elteriki, Salem Abdulsalam
Format: Thesis
Language:English
English
English
Published: 2018
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Online Access:http://eprints.uthm.edu.my/255/1/24p%20SALEM%20ABDULSALAM%20ELTERIKI.pdf
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spelling my-uthm-ep.2552021-07-14T04:31:44Z Hybrid artificial bee colony algorithm with branch and bound for two–sided assembly line balancing 2018-09 Elteriki, Salem Abdulsalam QA76 Computer software The two-sided assembly-line balancing (2SALB) is widely used in various production systems especially in high-volume large-size products. However, not many types of research are focused on the study of the 2SALB problem. Recently, the artificial bee colony (ABC) algorithm was used in the solution process where it was considered as a very useful, effective and well-known algorithm. Nevertheless, the ABC is also known to be a slow converging method in achieving an optimal solution. This research is intended to improve the ABC performance in solving the 2SALB problem with the objectives to hybrid ABC algorithm with branch and bound concept and to evaluate the performance of this algorithm in minimizing idle time and number of the workstation . The two-sided assembly line data was tested in modified spreadsheet model which is equipped with random priority rules in order to get multi-solution of ABC approach for balancing two-sided assembly line. The feasible number of workstations was determined with the minimum idle time of every mated station and maintains the minimum one in each cycle. This was done by calculating the partial fitness of the mated station. The branch and bound concept was applied by using mated workstations to overcome the slow convergence of the ABC algorithm and solve the problem optimality. The visual basic application software was used to generate different solutions with the various partial fitness of the proposed approach. The modified ABC algorithm was tested with the 2SALB problems involving P9, P12, P16, P24, P44 and P65 tasks. The results were tested by comparing hybrid ABC with pure ABC, where it was found that hybrid ABC had less number of workstation with minimum partial fitness value. In addition, the comparison was done with other research on ABC with full constraints and the proposed approach shows improvement by reduction of two workstations in sixteen task problem and reduction of one workstation at nine, twenty four and sixty five task problem sizes. As a conclusion, the proposed hybrid of ABC with Branch and Bound concept has increased the effectiveness of 2SALB solutions through the evaluation of many alternative mated stations results before going to assign to next mated stations to obtain minimum workstations with given cycle time solution. 2018-09 Thesis http://eprints.uthm.edu.my/255/ http://eprints.uthm.edu.my/255/1/24p%20SALEM%20ABDULSALAM%20ELTERIKI.pdf text en public http://eprints.uthm.edu.my/255/2/SALEM%20ABDULSALAM%20ELTERIKI%20COPYRIGHT%20DECLARATION.pdf text en staffonly http://eprints.uthm.edu.my/255/3/SALEM%20ABDULSALAM%20ELTERIKI%20WATERMARK.pdf text en validuser phd doctoral Universiti Tun Hussein Onn Malaysia Fakulti Kejuruteraan Mekanikal dan Pembuatan
institution Universiti Tun Hussein Onn Malaysia
collection UTHM Institutional Repository
language English
English
English
topic QA76 Computer software
spellingShingle QA76 Computer software
Elteriki, Salem Abdulsalam
Hybrid artificial bee colony algorithm with branch and bound for two–sided assembly line balancing
description The two-sided assembly-line balancing (2SALB) is widely used in various production systems especially in high-volume large-size products. However, not many types of research are focused on the study of the 2SALB problem. Recently, the artificial bee colony (ABC) algorithm was used in the solution process where it was considered as a very useful, effective and well-known algorithm. Nevertheless, the ABC is also known to be a slow converging method in achieving an optimal solution. This research is intended to improve the ABC performance in solving the 2SALB problem with the objectives to hybrid ABC algorithm with branch and bound concept and to evaluate the performance of this algorithm in minimizing idle time and number of the workstation . The two-sided assembly line data was tested in modified spreadsheet model which is equipped with random priority rules in order to get multi-solution of ABC approach for balancing two-sided assembly line. The feasible number of workstations was determined with the minimum idle time of every mated station and maintains the minimum one in each cycle. This was done by calculating the partial fitness of the mated station. The branch and bound concept was applied by using mated workstations to overcome the slow convergence of the ABC algorithm and solve the problem optimality. The visual basic application software was used to generate different solutions with the various partial fitness of the proposed approach. The modified ABC algorithm was tested with the 2SALB problems involving P9, P12, P16, P24, P44 and P65 tasks. The results were tested by comparing hybrid ABC with pure ABC, where it was found that hybrid ABC had less number of workstation with minimum partial fitness value. In addition, the comparison was done with other research on ABC with full constraints and the proposed approach shows improvement by reduction of two workstations in sixteen task problem and reduction of one workstation at nine, twenty four and sixty five task problem sizes. As a conclusion, the proposed hybrid of ABC with Branch and Bound concept has increased the effectiveness of 2SALB solutions through the evaluation of many alternative mated stations results before going to assign to next mated stations to obtain minimum workstations with given cycle time solution.
format Thesis
qualification_name Doctor of Philosophy (PhD.)
qualification_level Doctorate
author Elteriki, Salem Abdulsalam
author_facet Elteriki, Salem Abdulsalam
author_sort Elteriki, Salem Abdulsalam
title Hybrid artificial bee colony algorithm with branch and bound for two–sided assembly line balancing
title_short Hybrid artificial bee colony algorithm with branch and bound for two–sided assembly line balancing
title_full Hybrid artificial bee colony algorithm with branch and bound for two–sided assembly line balancing
title_fullStr Hybrid artificial bee colony algorithm with branch and bound for two–sided assembly line balancing
title_full_unstemmed Hybrid artificial bee colony algorithm with branch and bound for two–sided assembly line balancing
title_sort hybrid artificial bee colony algorithm with branch and bound for two–sided assembly line balancing
granting_institution Universiti Tun Hussein Onn Malaysia
granting_department Fakulti Kejuruteraan Mekanikal dan Pembuatan
publishDate 2018
url http://eprints.uthm.edu.my/255/1/24p%20SALEM%20ABDULSALAM%20ELTERIKI.pdf
http://eprints.uthm.edu.my/255/2/SALEM%20ABDULSALAM%20ELTERIKI%20COPYRIGHT%20DECLARATION.pdf
http://eprints.uthm.edu.my/255/3/SALEM%20ABDULSALAM%20ELTERIKI%20WATERMARK.pdf
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