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Military Airline Operational Control: A Concept for Communication and Cooperation
ISSN: 0148-7191, e-ISSN: 2688-3627
Published October 19, 1999 by SAE International in United States
Annotation ability available
Air Traffic Services (ATS) and Airline Operational Control (AOC) have developed independently as higher-level management functions to address separate, but related concerns of the Federal Aviation Administration (FAA) and the airlines, respectively. In today’s National Air Space (NAS), most interactions are limited to the results of unilateral decisions and communication of chosen options, with very little information about the objectives, constraints, processes, or rationale for those decisions being exchanged. However, the underlying philosophy of Air Traffic Management (ATM) and AOC is changing and the system is becoming much more collaborative.
Increasingly, the military is beginning to be a key user in the overall NAS community, as well as in the global airspace community. As the concepts of free flight begin to emerge, military users will need to employ methods and technologies in use by commercial airspace users for both ground and air. AOC has long been a key element is providing efficient and effective operations of aircraft fleets in the commercial arena. In a free flight ATM system, the parallel strategic decision-making roles of a military AOC and civilian Air Traffic Control (ATC) will need to entail a more collaborative AOC/ATC relationship. Datalink, both air/ground and ground/ground, is current technology that can be employed to increase the efficiency of the communications requirements in a military environment. This paper will address the development of a Military AOC Concept that utilizes the best datalink technologies available to allow the military to operate in a free flight environment while achieving military objective when world events require military action.
CitationRaab, C., "Military Airline Operational Control: A Concept for Communication and Cooperation," SAE Technical Paper 1999-01-5543, 1999, https://doi.org/10.4271/1999-01-5543.
- Advisory Circular AC 120-COM, Initial Air Carrier Operational Approval for Use of Digital Communications Systems, US Department of Transportation, Federal Aviation Administration
- Advisory Circular AC 20-DC, Guidelines for Design Approval of Aircraft Data Communications Systems, US Department of Transportation, Federal Aviation Administration
- Air Mobility Master Plan-1998, Air Mobility Command, HQ Scott AFB, October 24, 1997
- Air Mobility Command, Mission Needs Statement, AMC 001-98
- Air Mobility Command CNS/ATM Study: CNS/ATM Avionics Architecture and Cost Report, ARINC Inc and MITRE Corp., January 1997
- Air Mobility Command CNS/ATM Study: CNS/ATM Interoperability Report, The MITRE Corp., December 1996
- Airline Dispatcher Federation, A Dispatcher at Work, May 1999, http://www.dispatcher.org/library/jhexample.html.
- Airline Operational Control Overview, DOT/FAA/ AND-97/8, FAA Office of Communications, Navigation, and Surveillance Systems, Washington, D.C., July 1997
- ARINC Specification 618-3, Air/Ground Character Oriented Protocol Specification, ARINC, November 1998
- ARINC Characteristic 620-2, Data Link Ground System Standard and Interface Specification (DGSS/IS), ARINC, December 1994
- ARINC Specification 622-2, ATS Data Link Applications Over ACARS Air-Ground Network, ARINC, December 1994
- ARINC Specification 623-1, Character Oriented Air Traffic Service (ATS) Applications, ARINC, December 1997
- Communications Management Unit CMU-900, Detailed Technical Description, Rockwell Collins Air Transport Systems, May, 1999
- HERMES Ground Data Link System Technical Overview, Rockwell Collins, United Kingdom, August 1998
- NAS Architecture, Version 4.0 , Federal Aviation Administration, http://www.nasi.hq.faa.gov/nasiHTML/nas-architecture/
- Scope Command Technical Description, Rockwell Collins, Dallas, Texas, December 1998