2019
DOI: 10.1016/j.ejor.2019.03.024
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Minimizing latency in post-disaster road clearance operations

Abstract: After a natural disaster, roads and bridges can be damaged or blocked by debris, causing inaccessibility between critical locations such as hospitals, disaster response centers, shelters and disaster-struck areas.We study the post-disaster road clearing problem with the aim of providing a fast and effective method to determine the route of a work troop responsible for clearing blocked roads. The problem is to find a route for the troop that starts at the depot and visits all of the critical locations. The obje… Show more

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Cited by 43 publications
(29 citation statements)
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References 34 publications
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“…The rst model minimizes the total time to restore the connectivity of disconnected components of the network while the second maximizes the total components connected in a given time limit. Ajam et al (2019) adapted the models proposed by Kasaei and Salman (2016) to minimize the latency of critical nodes, where the latency of a node is dened as the travel time from the depot to that node, including the repair time of the traversed damaged roads. The authors developed a metaheuristic based on GRASP and variable neighborhood search.…”
Section: Background Literaturementioning
confidence: 99%
“…The rst model minimizes the total time to restore the connectivity of disconnected components of the network while the second maximizes the total components connected in a given time limit. Ajam et al (2019) adapted the models proposed by Kasaei and Salman (2016) to minimize the latency of critical nodes, where the latency of a node is dened as the travel time from the depot to that node, including the repair time of the traversed damaged roads. The authors developed a metaheuristic based on GRASP and variable neighborhood search.…”
Section: Background Literaturementioning
confidence: 99%
“…In comparison with various road networks that are generated from real data in the literature (see (Rawls & Turnquist, 2010), (Ajam et al, 2019), (Akbari & Salman, 2017a), and (Akbari & Salman, 2017b)) where the average degree of the nodes in all of the cases is less than five, these networks are relatively dense and make the instances more challenging.…”
Section: Data Generationmentioning
confidence: 99%
“…-Salesman 1 visits fast foods (150,118,117,90,85,20,15,131,5,107,18,130,127,79,72,6,143,135,9,27,133,116,125,124,106,59,52,58,51,57,69,68,120,14,149,109,2,110,13,25,139,140,136,35,11). -The salesman 4 visits fast foods (108,50,46,105,113,91,89,45,39,38,42,40,97 ,104,112,30,153,160,144,155,161,142,31,76 ,80,81,36,93,137,138,134,152,17,12,123,15 8,154,33,132,19,22).…”
Section: Practical Examplementioning
confidence: 99%
“…Meraj Ajam et al [25] develops a heuristic that solves a mixed integer program for the post-disaster road clearing problem so as to find the route of a work troop responsible for clearing blocked roads with the aim of minimizing minimize total latency by minimization of makespan. The researchers also develop a metaheuristic based on a combination of Greedy Randomized Adaptive Search Procedure and Variable Neighborhood Search.…”
Section: Introductionmentioning
confidence: 99%