Journal of Jilin University(Engineering and Technology Edition) ›› 2024, Vol. 54 ›› Issue (10): 2978-2983.doi: 10.13229/j.cnki.jdxbgxb.20230372

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Improved ant colony algorithm based on adaptive Lévy diversity

Jiao-huan YANG1(),Peng WANG2   

  1. 1.Teaching Support Service Center,Open University of Jilin,Changchun 130022,China
    2.College of Computer Science and Technology,Changchun University of Science and Technology,Changchun 130022,China
  • Received:2023-04-16 Online:2024-10-01 Published:2024-11-22

Abstract:

The papers proposed an improved ant colony optimization algorithm(SACO) based on the adaptive Lévy diversity mechanism to enhance convergence accuracy and the ability to avoid local optimum. The new algorithm was applied to welded beam engineering optimization problem. SACO combines the mechanism to enhance the population diversity, making the algorithm avoid local optimum. The paper designed a series of experiments to test the performance of SACO. Experimental results show that the algorithm shows better convergence, accuracy, and the ability to avoid local optimization in function experiments. Meanwhile, the proposed algorithm is applied to the welded beam design problem, obtaining significantly better results than other comparison algorithms. SACO shows competitiveness in function optimization and welded beam design optimization, which can be used as an effective tool for solving real-life engineering problems.

Key words: swarm intelligence algorithm, ant colony optimization, engineering optimization, Lévy diversity mechanism

CLC Number: 

  • TP305

Table 1

The analysis result of WSRT and FT"

算法+/-/=均值排名
SACO~1.6171
DE9/0/12.8433
WOA10/0/04.8775
PSO8/1/13.5634
IGWO7/1/22.4302
SCADE10/0/05.6706

Table 2

Analysis result of this experiment"

算法F1F2
AVGSTDAVGSTD
SACO5.2444E+081.5989E+098.291 3E+031.227 9E+04
DE1.560 0E+215.881 4E+212.036 6E+045.919 5E+03
WOA4.155 5E+232.260 9E+241.640 8E+055.519 0E+04
PSO3.327 3E+133.868 3E+136.502 2E+025.125 6E+01
IGWO7.843 2E+132.882 5E+141.258 0E+035.171 7E+02
SCADE1.817 8E+377.773 0E+376.044 3E+046.326 4E+03
算法F3F4
AVGSTDAVGSTD
SACO4.734 6E+022.592 7E+015.8626E+021.633 6E+01
DE4.905 8E+029.447 3E+006.070 9E+027.021 7E+00
WOA5.448 3E+023.986 1E+017.909 9E+026.029 6E+01
PSO4.783 5E+022.428 8E+017.473 6E+023.374 0E+01
IGWO5.030 8E+022.804 4E+016.115 8E+022.446 6E+01
SCADE3.275 8E+039.181 5E+028.314 3E+021.893 9E+01
算法F5F6
AVGSTDAVGSTD
SACO8.1792E+022.543 2E+018.9043E+022.482 6E+01
DE8.464 2E+028.661 8E+009.079 9E+029.104 2E+00
WOA1.194 7E+039.676 6E+011.002 1E+034.361 3E+01
PSO9.208 8E+021.443 3E+019.938 1E+023.526 9E+01
IGWO9.120 4E+024.126 1E+018.938 7E+022.336 5E+01
SCADE1.171 6E+033.120 4E+011.085 6E+031.561 9E+01
算法F7F8
AVGSTDAVGSTD
SACO4.176 1E+036.099 1E+022.397 8E+032.886 4E+01
DE5.798 2E+032.406 9E+022.412 0E+036.8674E+00
WOA6.028 1E+037.392 3E+022.575 2E+035.649 9E+01
PSO5.996 0E+036.155 2E+022.536 8E+033.633 2E+01
IGWO4.634 8E+036.653 8E+022.399 7E+032.563 0E+01
SCADE8.181 0E+032.381 9E+022.583 9E+032.202 9E+01
算法F9F10
AVGSTDAVGSTD
SACO2.919 8E+032.151 7E+013.190 2E+037.217 6E+01
DE2.956 4E+031.331 6E+013.197 5E+035.191 0E+01
WOA3.153 0E+039.208 7E+013.346 2E+032.515 3E+02
PSO3.189 2E+031.027 4E+023.246 4E+032.243 9E+01
IGWO2.942 0E+033.177 1E+013.251 3E+033.140 8E+01
SCADE3.175 7E+032.519 6E+014.312 2E+032.152 4E+02

Fig.1

The convergence curve of this experiment"

Table 3

Optimization result of welded beam engineering problem"

算法变量的最有值最优成本
hltb
SACO0.182 003.731 009.042 390.205 701.7232 02
RO0.203 693.528 479.004 230.207 241.7353 44
SSA0.205 703.471 409.036 600.205 701.724 910
SSA0.205 703.471 409.036 600.205 701.724 910
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