Fairness and Collaboration in Network Air Traffic Flow Management: An Optimization Approach

被引:63
作者
Bertsimas, Dimitris [1 ,2 ]
Gupta, Shubham [2 ]
机构
[1] MIT, Alfred P Sloan Sch Management, Cambridge, MA 02139 USA
[2] MIT, Ctr Operat Res, Cambridge, MA 02139 USA
关键词
air traffic flow management; collaborative decision-making; discrete optimization; fairness in allocation; GROUND-HOLDING PROBLEM; DELAY PROGRAMS;
D O I
10.1287/trsc.2014.0567
中图分类号
C93 [管理学]; O22 [运筹学];
学科分类号
070105 ; 12 ; 1201 ; 1202 ; 120202 ;
摘要
Air traffic flow management (ATFM) attempts to maintain a safe and efficient flow of aircraft given demand-capacity mismatches while ensuring an equitable distribution of delays among stakeholders. There has been extensive research addressing network effects (such as the presence of multiple airports, sectors, and connectivity requirements) in ATFM, but it has not explicitly incorporated the equitable distribution of delays, as well as work on the equitable distribution of delays in a single-airport setting, such as ration-by-schedule (RBS) as introduced under the collaborative decision-making paradigm. In this paper, we develop a two stage approach for network ATFM that incorporates fairness and airline collaboration. In Stage 1, we propose a discrete optimization model that attempts to incorporate an equitable distribution of delays among airlines by introducing a notion of fairness in network ATFM models-controlling the number of reversals and total amount of overtaking, which is a natural generalization of RBS. For two flights f and f', a reversal occurs when flight f' arrives before f, when f was scheduled to arrive before f'. In the event a reversal occurs, the number of time periods between the arrival times constitutes overtaking. In Stage 2, we allow for airline collaboration by proposing a network model for slot reallocation. We provide extensive empirical results of the proposed optimization models on national-scale, real-world data sets spanning six days that show interesting trade-offs between fairness and efficiency. We report computational times of less than 30 minutes for up to 25 airports and provide theoretical evidence that illuminates the strength of our approach.
引用
收藏
页码:57 / 76
页数:20
相关论文
共 50 条
[41]   Reward functions for learning to control in air traffic flow management [J].
Cruciol, Leonardo L. B. V. ;
de Arruda, Antonio C., Jr. ;
Li Weigang ;
Li, Leihong ;
Crespo, Antonio M. F. .
TRANSPORTATION RESEARCH PART C-EMERGING TECHNOLOGIES, 2013, 35 :141-155
[42]   Determining Stochastic Airspace Capacity for Air Traffic Flow Management [J].
Clarke, John-Paul B. ;
Solak, Senay ;
Ren, Liling ;
Vela, Adan E. .
TRANSPORTATION SCIENCE, 2013, 47 (04) :542-559
[43]   A two-stage stochastic integer programming model for air traffic flow management [J].
Corolli, Luca ;
Lulli, Guglielmo ;
Ntaimo, Lewis ;
Venkatachalam, Saravanan .
IMA JOURNAL OF MANAGEMENT MATHEMATICS, 2017, 28 (01) :19-40
[44]   New approach for air traffic management based on control theory [J].
Kammoun, Mohamed Ali ;
Rezg, Nidhal ;
Achour, Zied .
INTERNATIONAL JOURNAL OF PRODUCTION RESEARCH, 2014, 52 (06) :1711-1727
[45]   Improving the management of air traffic congestion during the approach phase [J].
Idrissi, O. ;
Bikir, A. ;
Mansouri, K. .
AERONAUTICAL JOURNAL, 2023, 127 (1316) :1752-1773
[46]   Real-time management of air traffic flow based on the Controlled Stochastic Petri Net approach. [J].
Abbas-Turki, AJ ;
Bouyekf, R ;
El-Moudni, A .
PROCEEDINGS OF THE 7TH WSEAS INTERNATIONAL CONFERENCE ON AUTOMATIC CONTROL, MODELING AND SIMULATION, 2005, :314-318
[47]   Efficient and fair traffic flow management for on-demand air mobility [J].
Chin C. ;
Gopalakrishnan K. ;
Balakrishnan H. ;
Egorov M. ;
Evans A. .
CEAS Aeronautical Journal, 2022, 13 (02) :359-369
[48]   An Air Traffic Flow Management Method Based on Mixed Genetic Algorithms [J].
Fu Ying .
INTERNATIONAL CONFERENCE ON SPACE INFORMATION TECHNOLOGY 2009, 2010, 7651
[49]   The design of a market mechanism to allocate Air Traffic Flow Management slots [J].
Castelli, Lorenzo ;
Pesenti, Raffaele ;
Ranieri, Andrea .
TRANSPORTATION RESEARCH PART C-EMERGING TECHNOLOGIES, 2011, 19 (05) :931-943
[50]   Models for single-sector stochastic air traffic flow management under reduced airspace capacity [J].
Chang, Yu-Heng ;
Solak, Senay ;
Clarke, John-Paul B. ;
Johnson, Ellis L. .
JOURNAL OF THE OPERATIONAL RESEARCH SOCIETY, 2016, 67 (01) :54-67