2020
DOI: 10.1109/tits.2019.2900490
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Hybridizing Basic Variable Neighborhood Search With Particle Swarm Optimization for Solving Sustainable Ship Routing and Bunker Management Problem

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Cited by 60 publications
(36 citation statements)
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“…Later, He et al [21] relax this assumption and suggest a consumption function model which is a general continuously differentiable and strictly convex function, but without a concrete form of variable impacts, causing varying costs per unit of distance traveled by the ship. [22], carbon emission Qi and Song [24] Liner Scheduling Speed Uncertain port times De et al [25] Liner Routing & bunkering Speed Port time windows, emission Reinhardt et al [26] Liner Scheduling Speed Schedule robustness Andersson et al [27] RoRo Fleet deployment Speed Xia et al [28] Liner Fleet deployment Speed, payload Du et al [29] Liner Berth allocation Speed Departure delay Venturini et al [30] Liner Berth allocation Speed Carbon emission Yao et al [31] Liner Bunkering Speed Empirical consumption function Kim et al [32] Liner Bunkering Speed Carbon emission Aydin et al [33] Liner Bunkering Speed Extension of [31], port time windows De et al [34] Liner Bunkering Speed Disruption recovery Zhao and Yang [35] Liner Maintenance Speed Dockyard choice…”
Section: Literature Reviewmentioning
confidence: 99%
“…Later, He et al [21] relax this assumption and suggest a consumption function model which is a general continuously differentiable and strictly convex function, but without a concrete form of variable impacts, causing varying costs per unit of distance traveled by the ship. [22], carbon emission Qi and Song [24] Liner Scheduling Speed Uncertain port times De et al [25] Liner Routing & bunkering Speed Port time windows, emission Reinhardt et al [26] Liner Scheduling Speed Schedule robustness Andersson et al [27] RoRo Fleet deployment Speed Xia et al [28] Liner Fleet deployment Speed, payload Du et al [29] Liner Berth allocation Speed Departure delay Venturini et al [30] Liner Berth allocation Speed Carbon emission Yao et al [31] Liner Bunkering Speed Empirical consumption function Kim et al [32] Liner Bunkering Speed Carbon emission Aydin et al [33] Liner Bunkering Speed Extension of [31], port time windows De et al [34] Liner Bunkering Speed Disruption recovery Zhao and Yang [35] Liner Maintenance Speed Dockyard choice…”
Section: Literature Reviewmentioning
confidence: 99%
“…In addition, metaheuristics have been presented for the LRP due to fast and simple features; they provide feasible results within reasonable processing times. Examples of the recognized metaheuristics are simulated annealing (SA) [21,[33][34][35][36], iterated local search (ILS) [37], variable neighborhood search (VNS) [38,39], and adaptive large neighborhood search (ALNS).…”
Section: Literature Reviewmentioning
confidence: 99%
“…According to [22], GSCM practices should cover all SC activities, from green purchasing to integrating lifecycle management, through manufacturers and customers, to the close of the cycle with reverse logistics. Several product-level green practices are described in the literature, including eco-design [7,8], product recycling design [23], reduction of carbon emissions in logistics activities [24,25] and reverse logistics [26][27][28].…”
Section: Integrating Gscm Practices With Suppliers and Customersmentioning
confidence: 99%