Abstract
In this chapter, we describe the development of the videopanorama-based Remote Tower prototype system as the main goal of the second DLR-RTO project (RAiCe, Remote Airport traffic Control Center). One focus was on the implementation of an advanced RTO environment at a second airport (besides a comparable system at the Research airport Braunschweig). It was used for the worldwide first RTO-validation experiments with controlled flight scenarios for directly comparing RTO versus tower conditions using a DLR test aircraft (see separate chapters “Which Metrics Provide the Insight Needed? A Selection of Remote Tower Evaluation Metrics to Support a Remote Tower Operation Concept Validation,” “Model Based Analysis of Two-Alternative Decision Errors in a Videopanorama-Based Remote Tower Work Position”). The advanced RTO system served for analyzing the performance of the near prototype level of hard and software solutions and for preparing and executing passive shadow mode field test with participation of domain experts for providing more realistic operational conditions. We describe the design and setup of this RTO system which was realized in cooperation with the German air navigation service provider DFS. A detailed work analysis with DFS domain experts during workshops and RTO simulations provided a breakdown of the specific requirement specifications. The analysis showed that it would be impossible to consider all of these requirements in an RTO design within a reasonable cost frame. This concerned the selection of type, numbers, and focal width of cameras, their visual resolution, contrast, dynamic range and field of view, zoom functions and the corresponding number, and type of displays or projection systems for the reconstructed panoramic view. The vertical FOV turned out as a crucial factor for the visual surveillance up to an altitude of 1000 ft. above the runway in the panoramic view as one of the basic design conditions. We describe hard- and software aspects of the system design, its setup, initial tests, and verification as precondition for the RTO-validation experiments. Furthermore, we include some details and results addressing the automation potential using image processing. The requirement for automation of functions such as pan–tilt–zoom camera–based object tracking, e.g. via movement detection was derived from the results of validation experiments described in chapters “Which Metrics Provide the Insight Needed? A Selection of Remote Tower Evaluation Metrics to Support a Remote Tower Operation Concept Validation,” “Model Based Analysis of Two-Alternative Decision Errors in a Videopanorama-Based Remote Tower Work Position,” and “The Advanced Remote Tower System and Its Validation.” Results of functional tests and performance verification complement the initial flight test results of chapter “Remote Tower Experimental System with Augmented Vision Videopanorama”.
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References
Friedrich M, Möhlenbrink C (2013) Which data provide the best insight? A field trial for validating a remote tower operation concept. In: Proceedings of the 10th USA/Europe air traffic management research and development seminar (ATM 2013)
Fürstenau N, Schmidt M, Rudolph M, Möhlenbrink M, Werther B (2007) Development of an augmented vision videopanorama human-machine interface for remote airport tower operation. In: Proceedings of the 6th Eurocontrol innovative research workshop, Eurocontrol, Bretigny, France, pp 125–132
Fürstenau N, Rudolph M, Schmidt M, Werther B, Hetzheim H, Halle W et al (2008a) Flugverkehr-Leiteinrichtung (Virtueller Tower). European Patent EP1791364
Fürstenau N, Schmidt M, Rudolph M, Möhlenbrink C, Halle W (2008b) Augmented vision videopanorama system for remote airport tower operation. In: Grant I (ed) Proceedings of the ICAS 2008, 26th international congress of the aeronautical sciences, Anchorage, 14–19 Sept 2008
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 105–114
ICAO (2013) European (EUR) regional supplementary procedures to annex 2, 6, 10, 11, 15. PANS-ATM (DOC 4444) & PANS-OPS (DOC 8168), ICAO
Papenfuß A, Möhlenbrink C (2009) RAiCe: Kognitive Arbeitsanalyse Lotsenarbeitsplatz, Internal Report DLR-IB 112-2009/20. Braunschweig
Schmidt M, Rudolph M, Werther B, Möhlenbrink C, Fürstenau N (2007) Development of an augmented vision video panorama human-machine interface for remote airport tower operation. In: Smith MJ, Salvendy G (eds) Lecture notes in computer science: human interface II, vol 4558. Springer Verlag, Berlin, pp 1119–1128
Shi J, Tomasi C (1994) Good features to track. In: Proceedings of the IEEE CVPR ‘94 computer vision and pattern recognition, pp 593–600
Tomasi, C., Kanade, T. (1991) Detection and tracking of point features, Technical Report CMU-CS-91-132, April 1991
Wohlfeil J, Börner A (2010) Optical orientation measurement for remote sensing systems with small auxiliary image sensors. International archives of the photogrammetry, remote sensing and spatial information sciences, ISPRS XXXVIII(1)
Acknowledgement
We are indebted to a number of controllers, technicians, and managers from the German air navigation service provider DFS who were involved in the successful setup of the RTO prototype with the DLR videopanorama system at Erfurt airport within the DLR–DFS cooperation RAiCon. Because it would exceed the available space to mention all of them, we confine ourselves to expressing our particular thanks to controller P. Distelkamp, engineer S. Axt, and ATC experts Nina Becker and T. Heeb, representing all the other colleagues, for excellent support and cooperation during setup and preparation of the experiments.
We also would like to thank Dr. Brigitte Brunner as responsible science officer from the DLR program directorate for continuous support and particularly for granting a half year extension of the project schedule in order to successfully finish the delayed validation activities.
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Schmidt, M., Rudolph, M., Fürstenau, N. (2016). Remote Tower Prototype System and Automation Perspectives. In: Fürstenau, N. (eds) Virtual and Remote Control Tower. Research Topics in Aerospace. Springer, Cham. https://doi.org/10.1007/978-3-319-28719-5_9
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DOI: https://doi.org/10.1007/978-3-319-28719-5_9
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