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19 - Environmental Performance

Published online by Cambridge University Press:  05 January 2013

Antonio Filippone
Antonio Filippone
Affiliation:
University of Manchester
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Summary

Overview

The previous chapters have shown several aspects of environmental performance, including aircraft noise and carbon emissions. This chapter elaborates further on the impact of aviation. We discuss the effects of commercial aviation on the formation of condensation trails (§ 19.1) and possible methods for mitigation, including altitude flexibility. We discuss briefly the controversial issue of radiative forcing of various forms of pollution (§ 19.2) and a method for calculating the landing and takeoff emissions (§ 19.3). We show a case study for a transport aircraft to illustrate key parametric effects on carbon-dioxide emissions (§ 19.4). We then propose an example of “perfect flight” (§ 19.5), that is, a flight that is not constrained by air traffic regulations. One of the key aspects that is due to dominate emissions (the trading scheme) is briefly reviewed in § 19.6.

This chapter does not attempt to enter the debate of environmental performance and its relationship with the climate change, as many stakeholders and interdependencies are involved. Furthermore, these deeper issues now overlap those of atmospheric physics, biochemistry and policy-making, which are beyond our context.

KEY CONCEPTS: Aircraft Contrails, Contrail Factor, Radiative Forcing, Altitude Flexibility, Carbon Emissions, LTO Emissions, Emissions Trading, Perfect Flight.

Aircraft Contrails

The blue skies! – What a rare pleasure at our latitudes. One cold afternoon, a clearing in the clouds brings crispy skies. The air traffic, which is normally invisible above the clouds, reveals the full scale of its impact, as shown in Figure 19.1.

Type
Chapter
Information
Advanced Aircraft Flight Performance , pp. 589 - 613
Publisher: Cambridge University Press
Print publication year: 2012

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References

[1] Penney, J, Lister, D, Griggs, D, Dokken, D, and McFarland, M, editors. Aviation and the Global Atmosphere. Cambridge University Press, 1999.
[2] Travis, DJ, Carleton, AM, and Lauritsen, RG. Contrails reduce daily temperature range. Nature, 418:601, 8 August 2002.CrossRefGoogle ScholarPubMed
[3] Travis, DJ, Carleton, AM, and Lauritsen, RG. Regional variations in U.S. diurnal temperature range for the 11–14 September 2001 aircraft groundings: Evidence on jet contrail influence on climate. J. Climate, 17:1123–1134, 2004.2.0.CO;2>CrossRefGoogle Scholar
[4] Schumann, U. On conditions for contrail formation f rom aircraft exhausts. Meteorologische Zeitschrift, 5(1):4–23, Jan. 1996.Google Scholar
[5] Murcray, WB. On the possibility of weather modification by aircraft contrails. Monthly Weather Review, 98(10):746–748, Oct. 1970.2.3.CO;2>CrossRefGoogle Scholar
[6] Fichter, C, Marquat, S, Sausen, R, and Lee, DS. The impact of cruise altitude on contrails and relative radiative forcing. Meteorologische Zeitschrift, 14(4):563–572, Aug. 2005.CrossRefGoogle Scholar
[7] Ström, L and Gierens, K. First simulation of cryoplane contrails. J. Geophys. Res., 107(D18):4346, Sept. 2002.CrossRefGoogle Scholar
[8] Minnis, P, Ayers, PK, Palikonda, R, and Phan, D. Contrails, cirrus trends, and climate. J. Climate, 17(8):1671–1685, April 2004.2.0.CO;2>CrossRefGoogle Scholar
[9] Spichtinger, P and Gierens, KM. Modelling of cirrus clouds – Part 1: Model description and validation. Atm. Chem & Physics, 9(2):685–706, 2009.Google Scholar
[10] Duda, DP and Minnis, P. Observations of aircraft dissipation trails from GOES. Monthly Weather Review, 130:398–406, Feb. 2002.2.0.CO;2>CrossRefGoogle Scholar
[11] Filippone, A. Cruise altitude flexibility of jet transport aircraft. Aero. Science & Technology, 14:283–294, 2010.CrossRefGoogle Scholar
[12] Gierens, K, Lim, L, and Eleftheratos, K. A review of various strategies for contrail avoidance. Open Atm. Science J., 2:1–7, Jan. 2008.Google Scholar
[13] Mannstein, H, Spichtinger, P, and Gierens, K. A note on how to avoid contrail cirrus. Transp. Res. D, 10:421–426, Sept. 2005.CrossRefGoogle Scholar
[14] Sussmann, R. Vertical dispersion of an aircraft wake: Aerosol lidar analysis of entrainment and detrainment in the vortex regime. J. Geophys. Res., 104(D2), 1999.CrossRefGoogle Scholar
[15] Schumann, U, Busen, R, and Plohr, M. Experimental test of the Influence of propulsion efficiency on contrail formation. J. Aircraft, 37(6):1083–1087, Nov. 2000.CrossRefGoogle Scholar
[16] Schumann, U. A contrail cirrus prediction tool. In Int. Conf. on Transport, Atmosphere and Climate, Maastricht, the Netherlands, June 2009.Google Scholar
[17] Irvine, E, Hoskins, B, Shine, K, Lunnon, R, and Froemming, C. Characterizing North Atlantic weather patterns for climate-optimal aircraft routing. Meteoroogical Applications, 2012.Google Scholar
[18] Schumann, U, Konopka, P, Baumann, R, Busen, R, Gerz, T, Schlager, H, Schulte, P, and Volkert, H. Estimate of diffusion parameters of aircraft exhaust plumes near the tropopause from nitric oxide and turbulence measurements. J. Geophysical Res., 100(D7):147–162, July 1995.CrossRefGoogle Scholar
[19] Schumann, U, Schlager, H, Arnold, F, Baumann, R, Haschberger, P, and Klemm, O. Dilution of aircraft exhaust plumes at cruise altitudes. Atmospheric Environment, 32(18):3097–3103, 1998.CrossRefGoogle Scholar
[20] Gardner, R, Adams, K, Cook, T, Deidewig, F, Ernedal, D, Falk, R, Fleuti, E, Herms, E, Johnson, C, Lecht, M, Lee, D, Leech, M, Lister, D, Mass, B, Metcalfe, M, Newton, P, Schmitt, A, Vandenbergh, C, and van Drimmelen, R. The ancat/ec global inventory of NOx emissions from aircraft. Atmospheric Environment, 31(12):1751–1766, 1997.CrossRefGoogle Scholar
[21] Stevenson, D, Dohery, R, Sanderson, M, Collins, W, Johnson, W, and Derwent, R. Radiative forcing from aircraft NOx emissions: Mechanisms and seasonal dependence. J. Geophysical Res., 109:D17307, 2004.CrossRefGoogle Scholar
[22] Wuebbles, DJ and Kinnison, DE. Sensitivity of stratospheric ozone and possible to present and future aircraft emissions. Technical Report JCRL-JC-104730, Lawrence Livermore National Labs, Aug. 1990 (presented at DLR Seminar on Air Traffic and Environment, Bonn, Nov. 1990).CrossRefGoogle Scholar
[23] Sausen, R, Isaksen, I, Grewe, V, Hauglustaine, D, Lee, D, Myhre, G, Kohler, M, Pitari, G, Schumann, U, Frode, S, and Zeferos, C. A viation radiative forcing in 2000: An update on IPCC (1999). Meteorologische Zeitschrift, 14(4):555–561, Aug. 2005.CrossRefGoogle Scholar
[24] Filippone, A. Analysis of carbon-dioxide emissions from transport aircraft. J. Aircraft, 45(1):183–195, Jan. 2008.CrossRefGoogle Scholar
[25] Kim, B, Fleming, G, Balasubramanian, S, Malwitz, A, Kee, J, Ruggiero, J, Waitz, I, Klima, K, Stouffer, V, Long, D, Kostiuk, P, Locke, M, Holcslaw, C, Morales, A, McQueen, E, and Gillette, W. SAGE: System for Assessing Global Aviation Emissions, Sept. 2005. FAA-EE-2005-01.Google Scholar
[26] Lee, HQ and Erzberger, H. Algorithm for fixed-range optimal trajectories. Technical Report TP-1565, NASA, July 1980.
[27] Erzberger, H and Lee, HQ. Constrained optimum trajectories with specified range. J. Guidance, Navigation & Control, 3(1):78–85, Jan.-Feb. 1980.CrossRefGoogle Scholar
[28] Ashley, H. On making things the best – Aeronautical uses of optimization. J. Aircraft, 19(1):5–28, 1982.Google Scholar
[29] Scheelhaase, JD and Grimme, WG. Emissions trading for International aviation – An estimation of the economic impact on selected European airlines. J. Air Transport Management, 13:253–263, 2007.CrossRefGoogle Scholar
[30] Vranas, DJ, Bertsimas, PB, and Odoni, AR. The multi-airport ground-holding problem in air traffic control. Operations Research, 42:249–261, Mar. 1994.CrossRefGoogle Scholar

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