Abstract
A system was developed to efficiently schedule aircraft into congested resources over long ranges and present that schedule as a decision support system. The scheduling system consists of a distributed network of independent schedulers, loosely coupled by sharing capacity information. This loose coupling insulates the schedules from uncertainty in long-distance estimations of arrival times, while allowing precise short-term schedules to be constructed. This “rate profile” mechanism allows feasible schedules to be produced over long ranges, essentially constructing precise short-range schedules that also ensure that future scheduling problems are solvable while meeting operational constraints. The system was tested operationally and demonstrated reduced airborne delay and improved coordination.
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Abbreviations
- AMDT::
-
allowable maximum delay time
- ARTCC (or Centers)::
-
Air Route Traffic Control Centers
- ATAs::
-
actual times of arrival
- CTAS::
-
Center-TRACON Automation System
- DP::
-
“dynamic planner”
- DS::
-
distributed scheduler
- ETAs::
-
estimated times of arrival
- FAA::
-
Federal Aviation Administration
- FCFS::
-
first-come, first-served
- McTMA::
-
Multi-center Traffic Management Advisor
- MiT::
-
miles-in-trail
- NASA::
-
National Aeronautics and Space Administration
- NextGen::
-
next generation air transportation system
- nmi::
-
nautical miles
- PHL::
-
Philadelphia International Airport
- RTA::
-
required time of arrival
- SESAR::
-
Single European Sky ATM Research programme
- SPDP::
-
“single point DP”
- TMA::
-
traffic management advisor
- TMCs::
-
traffic managers
- TRACON::
-
Terminal Radar Approach Control facilities
- ZBW::
-
Boston Center
- ZDC::
-
Washington Center
- ZNY::
-
New York Center
- ZOB::
-
Cleveland Center
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Landry, S.J., Farley, T., Hoang, T. et al. A distributed scheduler for air traffic flow management. J Sched 15, 537–551 (2012). https://doi.org/10.1007/s10951-012-0271-3
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DOI: https://doi.org/10.1007/s10951-012-0271-3