Abstract:We propose a new method based on discrete Artificial Bee Colony algorithm (DABC)
IntroductionTraveling salesman problem (it is abbreviated in TSP) [1] is an important combinational optimization problem in the area of mathematics. It belongs to Non-Deterministic Polynomial (NP) problem [2]. Although there are some precise algorithms which can be used to solve the problem, the principle of precise algorithms is complex, and it can produce "combination explosion problem" along with the increase number of city,… Show more
“…These methods include greedy algorithm (Hoos and Stützle 2005), stimulated annealing (Meer 2007;Zhan et al 2016), tabu search (Fiechter 1994;Misevičius et al 2005), neural network (Créput and Koukam 2009;Mulder and Wunch 2003), genetic algorithm (Cunkas and Ozsaglam 2009;Khan et al 2009;Tsai et al 2014), particle swarm optimization (Cunkas and Ozsaglam 2009;Shi et al 2007), ACO (Dorigo and Gambardella 1997;Guo and Liu 2011;Mei et al 2009), etc. Currently, many other new metaheuristic optimization algorithms have been applied to solve it too, such as quantum heuristic algorithm (Bang et al 2012), artificial bee colony algorithm (Kıran et al 2013;Meng et al 2016;Wong et al 2008), shrinking blob algorithm (Jones and Adamatzky 2014), discrete cuckoo search algorithm (Ouaarab et al 2014), African buffalo optimization (Odili and Kahar 2016), discrete bat algorithm (Saji and Riffi 2016), fruit fly optimization algorithm (Huang et al 2017), artificial atom algorithm (Yildirim and Karci 2018), black hole algorithm (Hatamlou 2018), symbiotic organisms search algorithm , and a minimum spanning tree-based heuristic (Kumar et al 2018). Moreover, some hybrid heuristic algorithms have also been proposed to solve TSP, such as cooperative genetic ant system (Dong et al 2012), hybrid max-min ant system integrated with a four vertices and three lines inequality (Wang 2015), hybrid elitist-ant system (Jaradat 2018), hybrid method based on ACO and 3-Opt algorithm (Gülcü et al 2018), hybrid method based on ACO and artificial bee...…”
Section: Traveling Salesman Problem and Its Related Workmentioning
To improve ant colony optimization (ACO) for traveling salesman problem (TSP), its two main strategies which are tour construction and pheromone updating have been modified, and one modified ACO (MACO) has been proposed. For the first strategy (tour construction strategy), one new method to construct tours by combining paths of two meeting ants has been applied. And for second strategy (pheromone updating strategy), one new method to polarize pheromone density of all paths has been proposed. Based on the applications for 40 standard benchmark TSP instances (datasets) ranging from 29 to 13,509 cities, the good performance of the MACO is verified. To verify the MACO deeply, based on the applications for some standard TSP instances, the computing results of MACO are compared with three typical state-of-the-art algorithms based on ACO methods. Moreover, based on the applications for some standard TSP instances, the computing results of MACO are compared with 10 state-of-the-art metaheuristic algorithms. The comparison studies show that the MACO can attain the optimal solution with higher accuracy, no matter how complicated the TSPs are. And its performance is the best, comparing to all state-of-the-art algorithms. At last, two new strategies used in MACO have been analyzed comprehensively by the applications for 25 TSPs. The results show that the first strategy is mainly used to improve the computing efficiency, and the second one is mainly used to improve the computing effect.
“…These methods include greedy algorithm (Hoos and Stützle 2005), stimulated annealing (Meer 2007;Zhan et al 2016), tabu search (Fiechter 1994;Misevičius et al 2005), neural network (Créput and Koukam 2009;Mulder and Wunch 2003), genetic algorithm (Cunkas and Ozsaglam 2009;Khan et al 2009;Tsai et al 2014), particle swarm optimization (Cunkas and Ozsaglam 2009;Shi et al 2007), ACO (Dorigo and Gambardella 1997;Guo and Liu 2011;Mei et al 2009), etc. Currently, many other new metaheuristic optimization algorithms have been applied to solve it too, such as quantum heuristic algorithm (Bang et al 2012), artificial bee colony algorithm (Kıran et al 2013;Meng et al 2016;Wong et al 2008), shrinking blob algorithm (Jones and Adamatzky 2014), discrete cuckoo search algorithm (Ouaarab et al 2014), African buffalo optimization (Odili and Kahar 2016), discrete bat algorithm (Saji and Riffi 2016), fruit fly optimization algorithm (Huang et al 2017), artificial atom algorithm (Yildirim and Karci 2018), black hole algorithm (Hatamlou 2018), symbiotic organisms search algorithm , and a minimum spanning tree-based heuristic (Kumar et al 2018). Moreover, some hybrid heuristic algorithms have also been proposed to solve TSP, such as cooperative genetic ant system (Dong et al 2012), hybrid max-min ant system integrated with a four vertices and three lines inequality (Wang 2015), hybrid elitist-ant system (Jaradat 2018), hybrid method based on ACO and 3-Opt algorithm (Gülcü et al 2018), hybrid method based on ACO and artificial bee...…”
Section: Traveling Salesman Problem and Its Related Workmentioning
To improve ant colony optimization (ACO) for traveling salesman problem (TSP), its two main strategies which are tour construction and pheromone updating have been modified, and one modified ACO (MACO) has been proposed. For the first strategy (tour construction strategy), one new method to construct tours by combining paths of two meeting ants has been applied. And for second strategy (pheromone updating strategy), one new method to polarize pheromone density of all paths has been proposed. Based on the applications for 40 standard benchmark TSP instances (datasets) ranging from 29 to 13,509 cities, the good performance of the MACO is verified. To verify the MACO deeply, based on the applications for some standard TSP instances, the computing results of MACO are compared with three typical state-of-the-art algorithms based on ACO methods. Moreover, based on the applications for some standard TSP instances, the computing results of MACO are compared with 10 state-of-the-art metaheuristic algorithms. The comparison studies show that the MACO can attain the optimal solution with higher accuracy, no matter how complicated the TSPs are. And its performance is the best, comparing to all state-of-the-art algorithms. At last, two new strategies used in MACO have been analyzed comprehensively by the applications for 25 TSPs. The results show that the first strategy is mainly used to improve the computing efficiency, and the second one is mainly used to improve the computing effect.
“…Because the existing ABC algorithms [11][12][13] have the defect of restricting the escape of precocious individual [13]. We deign a new escape scouter strategy.…”
“…Therefore, we compare TVAC with our new method (EM-CMLSQN), and the simulation results show that EM-CMLSQN has a better convergence rate and performance of jumping out of local solution than PSO and TVAC method. We also apply EMCMLSQN algorithm into path planning problem, and the results represent that EM-CMLSQN algorithm can search the optimal path more precisely and can be better applied into solving discrete domain problems than genetic algorithm and PSO algorithm [10,11]. The basic EM algorithm is composed of initialization, local search, resultant force calculation, particle displacement and judgment terminated.…”
scite is a Brooklyn-based organization that helps researchers better discover and understand research articles through Smart Citations–citations that display the context of the citation and describe whether the article provides supporting or contrasting evidence. scite is used by students and researchers from around the world and is funded in part by the National Science Foundation and the National Institute on Drug Abuse of the National Institutes of Health.