2023
DOI: 10.1016/j.ejor.2022.06.019
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Ant colony optimization for path planning in search and rescue operations

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Cited by 39 publications
(13 citation statements)
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“…When an ant begins to forage for food, it explores randomly, and as it moves, leaves chemical pheromone trails on the ground, which can be detected by other ants. The route with the most intense pheromone scent is more likely to be chosen by other ants [71].…”
Section: Ant Colony Optimization-levy Flight Algorithmmentioning
confidence: 99%
“…When an ant begins to forage for food, it explores randomly, and as it moves, leaves chemical pheromone trails on the ground, which can be detected by other ants. The route with the most intense pheromone scent is more likely to be chosen by other ants [71].…”
Section: Ant Colony Optimization-levy Flight Algorithmmentioning
confidence: 99%
“…In many specific applications, artificial ants can exchange information with each other during local optimization processes, and there are also improved swarm algorithms where artificial ants can perform simple predictions. Due to the parallelism of swarm algorithms, a large number of ants can improve the overall search ability and ensure the stability of the algorithm [16][17]. However, if the number of ants increases to some extent, it would lead to a large amount of information on the previous research path tending to average, and the positive feedback effect of the information is not significant [18][19].…”
Section: Basic Aco and Parameter Analysismentioning
confidence: 99%
“…MILP has multiple applications in problems of importance to society: ambulance relocation (Lee et al, 2022), balanced item placement (Gasse et al, 2022), cost-sharing for ride-sharing (Hu et al, 2021), drop box location (Schmidt and Albert, 2022), efficient failure detection in large-scale distributed systems (Er-Rahmadi and Ma, 2022), home healthcare routing (Dastgoshade et al, 2020), home service routing and appointment scheduling (Tsang and Shehadeh, 2022), inventory control under demand and lead time uncertainty (Thorsen and Yao, 2017), job-shop scheduling (Liu et al, 2021), facility location (Basciftci et al, 2021), flow-shop scheduling (Hong et al, 2019;Balogh et al, 2022;Öztop et al, 2022), freight transportation (Archetti et al, 2021), location and inventory prepositioning of disaster relief supplies (Shehadeh and Tucker, 2022), machine scheduling with sequence-dependent setup times (Yalaoui and Nguyen, 2021), maritime inventory routing (Gasse et al, 2022), multi-agent path finding with conflict-based search (Huang et al, 2021), multi-depot electric bus scheduling (Gkiotsalitis et al, 2023), multi-echelon/multi-facility green reverse logistics network design (Reddy et al, 2022), optimal physician staffing (Prabhu et al, 2021), optimal search path with visibility (Morin et al, 2023), oral cholera vaccine distribution (Smalley et al, 2015), outpatient colonoscopy scheduling (Shehadeh et al, 2020), pharmaceutical distribution (Zhu and Ursavas, 2018), plant factory crop scheduling (Huang et al, 2020), post-disaster blood supply (Hamdan and Diabat, 2020;Kamyabniya et al, 2021), real assembly line balancing with human-robot collaboration (Nourmohammadi et al, 2022), reducing vulnerability to human trafficking (Kaya et al, 2022), restoration planning and crew routing (Morshedlou et al, 2021)...…”
Section: Importance and Difficulties Of Milp Problemsmentioning
confidence: 99%