Review Article
Putting Continuous Metaheuristics to Work in Binary Search Spaces
Table 6
Summary of continuous-binary operator transformation.
| Binarization techniques | Metaheuristic | Problem | Reference |
| Boolean approach | Particle swarm | Antenna design problem | [98, 99] | Binary problems | [97] | Binary artificial bee colony | Binary problems | [100] |
| Set-based approach | Particle swarm | Traveling salesman problem | [103] | Multidimensional knapsack problem | ā | Vehicle routing problem | [101] | Feature selection | [144] | Jumping frogs | Combinatorial problems | [145] | Water cycle | Truss structure | [146] | Mine blast | Truss structure | [146] | Gravitational | Traveling Salesman | [147] | Imperialist competition | Transmission expansion Planning | [148] | Invasive weed | Typical benchmark functions (Sphere, Rosenbrock, Rastrigin, Griewank) | [149] | Social impact theory | Pattern recognition | [150] |
| Quantum binary approach | Particle swarm | Competitive facility | [151] | Location problems | ā | Knapsack problem | [108] | Power quality monitor placement method | [111] | Differential evolution | Knapsack problem | [151] | Combinatorial problems | [113] | Image thresholding | [114] | Cuckoo search | 0-1 knapsack problem | [115] | Bin packing problem | [116] | Ant colony optimization | Image thresholding | [114] | Harmony search | 0-1 knapsack problem | [117] | Monkey | 0-1 knapsack problem | [118] |
| Binary method based on estimation of distribution | Particle swarm | Knapsack problem | [120] | Differential Evolution | Optimization problems | [121, 122] | Genetic | Economic dispatch problem | [106] | Local search | Probabilistic traveling salesman problem | [123] | Memetic | Probabilistic traveling salesman problem | [123] |
|
|