Virtual and Remote Control Tower pp 3-19 | Cite as
Introduction and Overview
Abstract
Since more than 10 years, an increasing interest is observed worldwide in remote control of low-traffic airports by means of some kind of virtual control tower. As outlined in the Foreword by Steve Ellis and in the Preface to this book, “Virtual Tower” depicts the idea of replacing the conventional control tower on airports by an advanced sensor-based control center. It eliminates the need for direct visual traffic surveillance and consequently the requirement for a costly tower building at an exposed location in visual distance from the runway. The virtual/remote tower idea is connected with a paradigm change in air transportation due to the growth of low-cost carriers and the corresponding increased usage of small airports which, nevertheless, require controlled airspace provided by air navigation service providers (ANSPs). Cost constraints require new ideas and concepts to meet these requirements, and the control of one or more small airports from a remote location without direct visual surveillance from a local tower is one of these visions.
After providing in Sect. 1 of this introduction some basics of air traffic control in the airport vicinity, I will continue in Sect. 2 with a personal account of Virtual and Remote Control Tower research from the DLR perspective, starting around 2000. In Sect. 3, I present an overview of goals, requirements, technical issues, achievements, and initial steps towards industrialization. The concluding Sect. 4 contains an overview of the 13 chapters and two technical Appendices.
Keywords
Airport control tower Control zone ICAO Remote tower operation Virtual tower RTO concept RTO history Video panorama Augmented vision Goals AchievementsReferences
- Barfield W, Caudell T (2001) Fundamentals of wearable computers and augmented reality. In: Barfield W, Caudell T (eds.). Lawrence Erlbaum, Mahwah, NJGoogle Scholar
- Brinton and Atkins (2006) Brinton and Atkins remote airport traffic services concept. In: Proceedings, I-CNS conference, Baltimore 5/2006Google Scholar
- Ellis SR(1991) Pictorial communication in virtual and real environments. Taylor & Francis, LondonGoogle Scholar
- Ellis SR, Fürstenau N, Mittendorf M (2011a) Determination of frame rate requirements of video-panorama-based virtual towers using visual discrimination of landing aircraft deceleration during simulated aircraft landing. Fortschritt-Berichte VDI 22(33):519–524Google Scholar
- Ellis SR, Fürstenau N, Mittendorf M (2011b) Frame rate effects on visual discrimination of landing aircraft deceleration: implications for virtual tower design and speed perception. In: Proceedings of the human factors and ergonomics society, 55th annual meeting, Las Vegas,NV, USA,19-23 Sept 2011, 71–75Google Scholar
- Fürstenau N (1996) From sensors to situation awareness. In: DLR Mitteilung 96–02. DLR, KölnGoogle Scholar
- Fürstenau N (2004) Virtual tower. Wettbewerb der Visionen 2001–2004. DLR, Köln, pp 16–19Google Scholar
- Fürstenau N (2010) Virtual tower—special sessions 1,2. In: Vanderhaegen F (ed) Proceedings of the 11th IFAC-HMI conference. IFAC, Valenciennes. www.ifac-papersonline.net/detailed/47051.html
- Fürstenau N (2011) Steps towards the remote tower center—special sessions 3a, 3b. BWMMS 2011. Fortschritt-Berichte VDI 22(33). VDI, BerlinGoogle Scholar
- Fürstenau N (2013) Remote airport traffic control center (RAiCe). DLR IB-112-2013/20. DLR, BraunschweigGoogle Scholar
- Fürstenau N, Rudolph M, Schmidt M, Lorenz B (2004) On the use of transparent rear projection screens to reduce head-down time in the air-traffic control tower. In: Proceedings of the human performance, situation awareness and automation technology (HAPSA II), Lawrence Erlbaum, Mahwah, NJ, S 195–200Google Scholar
- Fürstenau N, Rudolph M, Schmidt M, Werther B, Hetzheim H, Halle W et al (2008a) Flugverkehr-Leiteinrichtung (Virtueller Tower). European Patent EP1791364.Google Scholar
- Fürstenau N, Schmidt M, Rudolph M, Möhlenbrink C, Halle W (2008b) Augmented vision videopanorama system for remote airport tower operation. In: Grant I (Hrsg) Proceedings of the ICAS, 26th international congress of the aeronautical sciences, ICAS, Anchorage, 14–19 Sept 2008Google Scholar
- Fürstenau N, Ellis SR, Mitttendorf M (2012) Remote towers: videopanorama framerate requirements derived from visual discrimination of deceleration during simulated aircraft landing. In Schäfer D (ed.). Eurocontrol. http://www.sesarinnovationdays.eu/files/SIDs/2012/SID%202012-02.pdf
- Fürstenau N, Mittendorf M, Friedrich M (2014) Discriminability of flight maneuvers and risk of false decisions derived from dual choice decision errors in a videopanorama-based remote tower work position. Lecture Notes in Artificial Intelligence (LNAI), vol 8020, pp 105–114Google Scholar
- Hannon D, Lee J, Geyer M, Mackey S, Sheridan T, Francis M et al (2008) Feasibility evaluation of a staffed virtual tower. J Air Traffic Control:27–39Google Scholar
- ICAO (2012) Twelfth air navigation conference, working paper: procedures at remote towers. ICAO International Civil Aviation Organisation, MontrealGoogle Scholar
- ICAO International Civil Aviation Organisation (2001) Document 444 ATM/501; procedures for air navigation services. ICAOGoogle Scholar
- Kraiss K, Kuhlen T (1996) Virtual reality—principles and applications. In: Fürstenau N (ed) From sensors to situation awareness. DLR-Mitteilung 112-96-02, 187–208Google Scholar
- LFV (2014) LFV first in the world to have an operating licence for remote towers. LFV Press release. 3 Nov 2014Google Scholar
- Mensen H (2003) Handbuch der Luftfahrt. Springer, HeidelbergCrossRefGoogle Scholar
- Papasin R, Gawdiak Y, Maluf D, Leidich C, Tran PB (2001) Airport remote tower sensor system. In: Proceedings of the conference advances in aviation safetyGoogle Scholar
- Peterson S, Pinska E (2006) Human performance with simulated collimation in transparent projection screens. In: Proceedings of the 2nd international conference on research in air transportation, Eurocontrol, Belgrade, S 231–237Google Scholar
- Pinska E (2006) An Investigation of the head-up time at tower and ground control positions. In: Proceedings of the 5th Eurocontrol innovative research workshop, Eurocontrol, Bretigny, S 81–86Google Scholar
- Schmidt M, Rudolph M, Werther B, Fürstenau N (2006) Remote airport tower operation with augmented vision video panorama HMI. In: Proceedings of the 2nd international conference in air transportation, Eurocontrol, Belgrade, S 221–230Google Scholar
- Tavanti M (2006) Control tower operations: a literature review of task analysis studies. Eurocontrol Experimental Center EEC Note 05Google Scholar
- Tavanti M (2007) Augmented reality for tower: using scenarios for describing tower activities. In: Proceedings of the 28th digital avionics systems conference (DASC’07), IEEE, Dallas, TX, S 5.A.4-1–5.A.4-12Google Scholar
- Watson A, Ramirez C, Salud E (2009) Predicting visibility of aircraft. PLoS One 4(5):e5594. doi: 10.1371/journal.pone.0005594
- Werther B (2005). Kognitive Modellierung mit farbigen Petrinetzen zue Analyse menschlichen Verhaltens. DLR FB 2005–26, KölnGoogle Scholar
- Wickens CD, Mavor AS, Parasuraman R, McGee JP (1998) The future of air traffic control—human operators and automation. National Academy Press, Washington, DCGoogle Scholar