A mixing algorithm of ACO and ABC for solving path planning of mobile robot
Path planning is involved in many applications such as trajectory planning, mobile robotics, pipeline layout, etc. Researchers use artificial intelligence algorithms to solve path planning efficiently, among which the ant colony algorithm (ACO) is one of the common intelligent algorithms to solve pa...
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Published in | Applied soft computing Vol. 148; p. 110868 |
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Main Authors | , , , |
Format | Journal Article |
Language | English |
Published |
Elsevier B.V
01.11.2023
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Subjects | |
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Abstract | Path planning is involved in many applications such as trajectory planning, mobile robotics, pipeline layout, etc. Researchers use artificial intelligence algorithms to solve path planning efficiently, among which the ant colony algorithm (ACO) is one of the common intelligent algorithms to solve path planning problems. However, the traditional ACO has defects such as low early search efficiency and easy to fall into local optimum, while the artificial bee colony algorithm (ABC) has high search efficiency. Therefore, an improved ant colony optimization-artificial bee colony algorithm (IACO-IABC) is proposed in this study. IACO-IABC contains three mechanisms. First, the heuristic mechanism with directional information for the ACO is improved to enhance the efficiency of steering towards the target direction. Secondly, the novel neighborhood search mechanism of the employed bee and the onlooker bee in the ABC is presented to enhance the exploitation of optimal solutions. Then, the path optimization mechanism is introduced further to reduce the number of turn times in the planned path. To verify the performance of the IACO-IABC, a series of experiments are conducted with 10 different maps. The experiments compare nine variants of ACO and eight commonly used intelligent search algorithms, and the results show the advantages of the IACO-IABC in reducing the number of turn times and path lengths and enhancing the convergence speed of the algorithm. Compared to the best results of other algorithms, the average improvement percentages of the proposed algorithm in terms of the path turn times are 375%, 258.33%, 483.33%, 186.67%, 166.77% and 255.33%, further demonstrating the ability of IACO-IABC to obtain high-quality path planning result.
•A mathematical model of 2-D path planning problem is established.•A novel hybrid approach based on ACO and ABC for solving path planning of mobile robot is proposed and named IACO-IABC.•The proposed IACO-IABC includes three novel mechanisms.•Compared with several existing approaches, experimental results show the advantage of IACO-IABC. |
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AbstractList | Path planning is involved in many applications such as trajectory planning, mobile robotics, pipeline layout, etc. Researchers use artificial intelligence algorithms to solve path planning efficiently, among which the ant colony algorithm (ACO) is one of the common intelligent algorithms to solve path planning problems. However, the traditional ACO has defects such as low early search efficiency and easy to fall into local optimum, while the artificial bee colony algorithm (ABC) has high search efficiency. Therefore, an improved ant colony optimization-artificial bee colony algorithm (IACO-IABC) is proposed in this study. IACO-IABC contains three mechanisms. First, the heuristic mechanism with directional information for the ACO is improved to enhance the efficiency of steering towards the target direction. Secondly, the novel neighborhood search mechanism of the employed bee and the onlooker bee in the ABC is presented to enhance the exploitation of optimal solutions. Then, the path optimization mechanism is introduced further to reduce the number of turn times in the planned path. To verify the performance of the IACO-IABC, a series of experiments are conducted with 10 different maps. The experiments compare nine variants of ACO and eight commonly used intelligent search algorithms, and the results show the advantages of the IACO-IABC in reducing the number of turn times and path lengths and enhancing the convergence speed of the algorithm. Compared to the best results of other algorithms, the average improvement percentages of the proposed algorithm in terms of the path turn times are 375%, 258.33%, 483.33%, 186.67%, 166.77% and 255.33%, further demonstrating the ability of IACO-IABC to obtain high-quality path planning result.
•A mathematical model of 2-D path planning problem is established.•A novel hybrid approach based on ACO and ABC for solving path planning of mobile robot is proposed and named IACO-IABC.•The proposed IACO-IABC includes three novel mechanisms.•Compared with several existing approaches, experimental results show the advantage of IACO-IABC. |
ArticleNumber | 110868 |
Author | Liu, Chao Li, Guangxin Xiao, Wensheng Wu, Lei |
Author_xml | – sequence: 1 givenname: Guangxin surname: Li fullname: Li, Guangxin email: liguangupc@163.com organization: National Engineering Lab of Offshore Geophysical & Exploration Equipment, China University of Petroleum (East China), Qingdao 266580, China – sequence: 2 givenname: Chao surname: Liu fullname: Liu, Chao email: upcliuchao@163.com organization: National Engineering Lab of Offshore Geophysical & Exploration Equipment, China University of Petroleum (East China), Qingdao 266580, China – sequence: 3 givenname: Lei surname: Wu fullname: Wu, Lei email: wuleiup@163.com organization: National Engineering Lab of Offshore Geophysical & Exploration Equipment, China University of Petroleum (East China), Qingdao 266580, China – sequence: 4 givenname: Wensheng surname: Xiao fullname: Xiao, Wensheng email: xiaowenshengupc@163.com organization: National Engineering Lab of Offshore Geophysical & Exploration Equipment, China University of Petroleum (East China), Qingdao 266580, China |
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Keywords | Ant colony optimization Artificial intelligence algorithms Path planning Artificial bee colony Mobile robot |
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SubjectTerms | Ant colony optimization Artificial bee colony Artificial intelligence algorithms Mobile robot Path planning |
Title | A mixing algorithm of ACO and ABC for solving path planning of mobile robot |
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