Review Article
Putting Continuous Metaheuristics to Work in Binary Search Spaces
Table 5
Summary of two-step binarization methods.
| Binarization techniques | Metaheuristic | Problem | References |
| Transfer function | Firefly | Set covering problem | [132, 133] | Synthesis of thinned planar antenna array | [134] | Nonlinear binary optimization | [135] | Network and reliability constrained unit commitment problem | [78] | Permutation flow-shop scheduling problem | [136] | Algae | Knapsack problem | [41] | Artificial bee colony | Set covering problem | [96] | Thermal unit commitment | [137] | Cuckoo search | Bulk power system | [37] | Differential evolutionary | Multiagent systems | [29] | Knapsack problems | [30] | Binary bat | Unimodal, multimodal | [138] | Traveling Salesman | [139] | Gravitational search | Unimodal, multimodal | [80, 138] | Open source development model | Combinatorial problems | [140] | Particle swarm | Optimize sizing of capacitor banks | [82] | Bulk power system | [81] | Network reconfiguration | [83] | Unit commitment problem | [31] | Knapsack problems | [41, 74] | Teaching-learning based | Designing plasmonic nanobipyramids based on absorption coefficient | [85] | Electromagnetism-like method | Traveling sales | [141] | Catfish | Feature selection | [142] |
| Great value priority | Binary Bat | Antenna positioning problem | [87] | Particle swarm | Quadratic assignment problem | [86] |
| Angle modulation | Particle swarm | N-queens | [92] | Binary problems | [89] | Finding defensive islands of large-scale power systems | [90] | Differential evolution | Knapsack problems | [93] | Binary problems | [94] | Artificial bee colony | Binary problems | [96] | Feature selection | [95] | Binary bat | Graph coloring | [143] | Antenna positioning problem | [87] |
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