• DocumentCode
    824020
  • Title

    Air traffic management design considerations

  • Author

    Buede, Dennis ; Farr, John ; Powell, Robert ; Verma, Dinesh

  • Author_Institution
    Dept. of Syst. Eng. & Eng. Manage., Stevens Inst. of Technol., Hobooken, NJ, USA
  • Volume
    18
  • Issue
    10
  • fYear
    2003
  • Firstpage
    3
  • Lastpage
    8
  • Abstract
    An air traffic management system (ATMS) is a network-centric system being used to manage another network-centric system, namely, an air transportation system. We are developing a design language for network-centric systems and design guidelines for the development system of engineers and domain specialists involved in designing and integrating systems. Note: this development system with today´s technology is also a network-centric system. An outline of the design language under construction and the design guidelines being studied is provided. Specifically we discuss ATMS mission objectives (e.g., average yearly throughput of people and freight for a high demand scenario); ATMS sample usage scenarios (e.g., ATMS reroutes air traffic in time and space in reaction to major weather deviation along the northeast coast); and system objectives for an ATMS (e.g., timelines of a specific high volume of messages from aircraft, weather sensors, and airports). We lay out some key design decisions associated with both the development system of engineers and domain specialists and the operational ATMS. Examples of key design decisions for the engineering system are: 1) appropriate partitioning of functional/physical architectures of the engineering system; 2) appropriate degree to telecollaboration and collaboration among design/integration groups; 3) appropriate incremental delivery packages for an incremental delivery schedule of ATMS elements; and 4) appropriate levels and thrusts of the risk management program. Examples of key design decisions for the operational ATMS are: 1) throughput and security trades of the ATMS and 2) throughput and resiliency to weather changes. Finally, we relate network-centric architecture issues to both of the above sets of design decisions.
  • Keywords
    air traffic; air traffic control; design engineering; risk management; ATMS mission objective; ATMS sample usage scenario; air traffic management system; air transportation system; design guidelines; design language; domain specialist; network-centric system; risk management program; system objective; Aerospace engineering; Air traffic control; Air transportation; Aircraft propulsion; Design engineering; Guidelines; Space missions; Systems engineering and theory; Telecommunication traffic; Throughput;
  • fLanguage
    English
  • Journal_Title
    Aerospace and Electronic Systems Magazine, IEEE
  • Publisher
    ieee
  • ISSN
    0885-8985
  • Type

    jour

  • DOI
    10.1109/MAES.2003.1244768
  • Filename
    1244768