2014
DOI: 10.1155/2014/430243
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Solving the Bilevel Facility Location Problem under Preferences by a Stackelberg-Evolutionary Algorithm

Abstract: This research highlights the use of game theory to solve the classical problem of the uncapacitated facility location optimization model with customer order preferences through a bilevel approach. The bilevel model provided herein consists of the classical facility location problem and an optimization of the customer preferences, which are the upper and lower level problems, respectively. Also, two reformulations of the bilevel model are presented, reducing it into a mixed-integer single-level problem. An evol… Show more

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Cited by 46 publications
(27 citation statements)
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“…Another study considers location of logistics distribution centers by minimizing the planners' cost at the upper level and customers' cost at the lower level [158]. Other applications of bilevel optimization to facility location problem may be found in [88], [164], [159], [7], [36], [38], [128], [38], [118], [41], [114]. 7) Inverse Optimal control: Inverse optimal control problems are essentially bilevel in nature [123], [6], [89], [160] with wide applications in robotics, computer vision, communication theory and remote sensing to name a few.…”
Section: Applicationsmentioning
confidence: 99%
“…Another study considers location of logistics distribution centers by minimizing the planners' cost at the upper level and customers' cost at the lower level [158]. Other applications of bilevel optimization to facility location problem may be found in [88], [164], [159], [7], [36], [38], [128], [38], [118], [41], [114]. 7) Inverse Optimal control: Inverse optimal control problems are essentially bilevel in nature [123], [6], [89], [160] with wide applications in robotics, computer vision, communication theory and remote sensing to name a few.…”
Section: Applicationsmentioning
confidence: 99%
“…The relevant information is displayed in Table 11. Averbakh et al, 2007] × [Berman and Drezner, 2006] × × [Camacho-Vallejo et al, 2014] × [Castillo et al, 2009] × × [Desrochers et al, 1995] × [Kim, 2013] × [Küçükaydin et al, 2011] × × × [Labbé and Hakimi, 1991] × [Marianov and Serra, 2001] × [Marianov, 2003] × × [Marianov et al, 2008…”
Section: D3 Example Of Lower Level Linearization When K = ∞mentioning
confidence: 99%
“…Moreover, due to the nature of the allocation problem, alternative exact methods can be easily adapted for solving it. For instance, in [14,15], an exact method based on the ordered matrix of preferences is considered for solving the bilevel version of UFLBP. However, the construction of efficient exact methods cannot be always obtained for solving the lower level problem; it clearly depends on its structure.…”
Section: Mathematical Problems In Engineeringmentioning
confidence: 99%
“…Also, the computational results obtained from applying those methodologies are presented. First, we considered an evolutionary algorithm (EA) proposed in [15] and conducted the experimentation. Then, we hybridize the EA with a path relinking (PR) procedure, included in the crossover phase, as we mentioned in the previous section.…”
Section: Computational Experimentationmentioning
confidence: 99%