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Articles

Structural damage detection using improved particle swarm optimizationFootnote

, &
Pages 792-810 | Received 25 May 2016, Accepted 20 Jun 2017, Published online: 03 Jul 2017

Figures & data

Table 1. Parameter values for DPSO.

Figure 1. A simply supported beam and its cross section.

Figure 1. A simply supported beam and its cross section.

Figure 2. Damage detection results of beam case 1 without noise.

Figure 2. Damage detection results of beam case 1 without noise.

Figure 3. Damage detection results of beam case 1 with noise.

Figure 3. Damage detection results of beam case 1 with noise.

Table 2. Identified values of damaged elements and relative errors of different structures with noise.

Figure 4. Evolutionary processes of fitness values of beam case 1 without noise.

Figure 4. Evolutionary processes of fitness values of beam case 1 without noise.

Figure 5. Damage detection results of beam case 2 without noise.

Figure 5. Damage detection results of beam case 2 without noise.

Figure 6. Damage detection results of beam case 2 with noise.

Figure 6. Damage detection results of beam case 2 with noise.

Figure 7. Evolutionary processes of damaged elements of beam case 2 without noise.

Figure 7. Evolutionary processes of damaged elements of beam case 2 without noise.

Figure 8. Evolutionary processes of fitness values of beam case 2 without noise.

Figure 8. Evolutionary processes of fitness values of beam case 2 without noise.

Figure 9. A 31-bar truss structure.

Figure 9. A 31-bar truss structure.

Figure 10. Damage identification of the truss without noise.

Figure 10. Damage identification of the truss without noise.

Figure 11. Damage identification of the truss case with noise.

Figure 11. Damage identification of the truss case with noise.

Figure 12. Evolutionary processes of DG-PSO without noise.

Figure 12. Evolutionary processes of DG-PSO without noise.

Figure 13. Evolutionary process of DI-PSO without noise.

Figure 13. Evolutionary process of DI-PSO without noise.

Figure 14. Evolutionary processes of fitness values from DG-PSO and DI-PSO.

Figure 14. Evolutionary processes of fitness values from DG-PSO and DI-PSO.

Figure 15. Sketch of a four-edge simply supported plate ((1), (2), …, (63) denote node number of the FEM; 1, 2, … , 48 denote element number) (Dimensions not scaled).

Figure 15. Sketch of a four-edge simply supported plate ((1), (2), …, (63) denote node number of the FEM; 1, 2, … , 48 denote element number) (Dimensions not scaled).

Figure 16. Damage detection results of DPSO in plate.

Figure 16. Damage detection results of DPSO in plate.

Figure 17. Evolutionary process of damage indices in plate case.

Figure 17. Evolutionary process of damage indices in plate case.

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