Solution of capacitated vehicle routing problem with invasive weed and hybrid algorithms

The vehicle routing problem is widespread in terms of optimization, which is known as being NP-Hard. In this study, the vehicle routing problem with capacity constraints is solved using cost- and time-efficient metaheuristic methods: an invasive weed optimization algorithm, genetic algorith...

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Main Authors: Yıldırım, Ümit, Kuvvetli, Yusuf
Format: Article
Language:English
Published: Growing Science 2021-01-01
Series:International Journal of Industrial Engineering Computations
Online Access:http://www.growingscience.com/ijiec/Vol12/IJIEC_2021_10.pdf
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spelling doaj-6a68224e6a3e438880f4570af2d6e8d32021-06-13T06:34:37ZengGrowing ScienceInternational Journal of Industrial Engineering Computations1923-29261923-29342021-01-0112444145610.5267/j.ijiec.2021.4.002Solution of capacitated vehicle routing problem with invasive weed and hybrid algorithmsYıldırım, ÜmitKuvvetli, Yusuf The vehicle routing problem is widespread in terms of optimization, which is known as being NP-Hard. In this study, the vehicle routing problem with capacity constraints is solved using cost- and time-efficient metaheuristic methods: an invasive weed optimization algorithm, genetic algorithm, savings algorithm, and hybridized variants. These algorithms are tested using known problem sets in the literature. Twenty-four instances evaluate the performance of algorithms from P and five instances from the CMT data set group. The invasive weed algorithm and its hybrid variant with savings and genetic algorithms are used to determine the best methodology regarding time and cost values. The proposed hybrid approach has found optimal P group problem instances with a 2% difference from the best-known solution on average. Similarly, the CMT group problem is solved with about a 10% difference from the best-known solution on average. That the proposed hybrid solutions have a standard deviation of less than 2% on average from BKS indicates that these approaches are consistent.http://www.growingscience.com/ijiec/Vol12/IJIEC_2021_10.pdf
collection DOAJ
language English
format Article
sources DOAJ
author Yıldırım, Ümit
Kuvvetli, Yusuf
spellingShingle Yıldırım, Ümit
Kuvvetli, Yusuf
Solution of capacitated vehicle routing problem with invasive weed and hybrid algorithms
International Journal of Industrial Engineering Computations
author_facet Yıldırım, Ümit
Kuvvetli, Yusuf
author_sort Yıldırım, Ümit
title Solution of capacitated vehicle routing problem with invasive weed and hybrid algorithms
title_short Solution of capacitated vehicle routing problem with invasive weed and hybrid algorithms
title_full Solution of capacitated vehicle routing problem with invasive weed and hybrid algorithms
title_fullStr Solution of capacitated vehicle routing problem with invasive weed and hybrid algorithms
title_full_unstemmed Solution of capacitated vehicle routing problem with invasive weed and hybrid algorithms
title_sort solution of capacitated vehicle routing problem with invasive weed and hybrid algorithms
publisher Growing Science
series International Journal of Industrial Engineering Computations
issn 1923-2926
1923-2934
publishDate 2021-01-01
description The vehicle routing problem is widespread in terms of optimization, which is known as being NP-Hard. In this study, the vehicle routing problem with capacity constraints is solved using cost- and time-efficient metaheuristic methods: an invasive weed optimization algorithm, genetic algorithm, savings algorithm, and hybridized variants. These algorithms are tested using known problem sets in the literature. Twenty-four instances evaluate the performance of algorithms from P and five instances from the CMT data set group. The invasive weed algorithm and its hybrid variant with savings and genetic algorithms are used to determine the best methodology regarding time and cost values. The proposed hybrid approach has found optimal P group problem instances with a 2% difference from the best-known solution on average. Similarly, the CMT group problem is solved with about a 10% difference from the best-known solution on average. That the proposed hybrid solutions have a standard deviation of less than 2% on average from BKS indicates that these approaches are consistent.
url http://www.growingscience.com/ijiec/Vol12/IJIEC_2021_10.pdf
work_keys_str_mv AT yıldırımumit solutionofcapacitatedvehicleroutingproblemwithinvasiveweedandhybridalgorithms
AT kuvvetliyusuf solutionofcapacitatedvehicleroutingproblemwithinvasiveweedandhybridalgorithms
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