Conceptual design and integration of a propulsion system for a supersonic transport aircraft

Abstract

Despite 50 years of technological advancement since the inception of Concorde, research on supersonic passenger aircraft has only recently resulted in design and flight test of several small 12 to 55-passenger business jets with supersonic cruises between Mach 1.2 and 2.2. Analytical research designs of larger 300-passenger aircraft have been conducted only to speeds of Mach 2.0 and 2.2, mainly avoiding moving beyond turbojet propulsion. This research extends on an earlier multifactor regression sizing study to determine in greater design detail whether the configuration of a 200-passenger Mach 3.0 aircraft is feasible using extant technology. This research article is the second part of two and covers a suitable and cost-effective propulsion system for the executive supersonic passenger aircraft. Through this high-speed design, the research examines modern propulsion technology and the performance advancements it affords through higher efficiencies, higher metallurgical thermal limits, variable cycle engines and variable stator technology. The analysis was conducted on several potential propulsion systems using GasTurb software to obtain engine performance data. The performance results led to a combined cycle turbofan–ramjet engine as being the engine that could yield the most extensive range for the aircraft. Further investigation is needed on aircraft noise, engine emissions, the accuracy of the thrust-critical lift-to-drag ratios and the aeroelastic effects that can be closely coupled to noise and performance.

Keywords

Supersonic aircraft aircraft design engine integration ramjet hybrid engines

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References

Lakritz

. 12 of the longest flight routes in the world. Online Insider Incorporated, 2020, https://www.insider.com/longest-flight-routes-in-the-world.

Sun

Smith

. Review and prospect of supersonic business jet design. Prog Aerosp Sci 2017; 90: 12–38.

Kressner

WKH

. The 2707 supersonic transport. Proceedings of the IEEE 1968; 56: 682–691.

Eames

. Concorde operations SAE transactions. J Aerosp 1991; 100: 2603–2619.

Rech

Leyman

. A Case Study by Aerospatiale and British Aerospace on the Concorde. Virginia: American Institute of Aeronautics and Astronautic, 1997.

Gordon

Rigmant

. OKB Tupolev: a history of the design bureau and its aircraft. 2nd ed. Hinckley, UK: Midland, 2006.

Sobieczky

. New design Concepts for high Speed air transport. New York: CISM International Centre for Mechanical Sciences Springer, 2014.

Plencer

Misra

. Engine technology challenges for the high speed civil transport plane. In: 20th AIAA advanced measurement and ground testing technology conference. Albuquerque, NM, 15–18 June 1988.

Joiner

Zahra

Rehman

. Conceptual sizing of next supersonic passenger aircraft from regression of the limited existing designs. Asia Conference on Mechanical Engineering and Aerospace Engineering 2018; 198: 05001.

10.

Lawrence

Hutchinson

Joiner

. Conceptual design of an executive supersonic passenger aircraft – ESPA. Proc Inst Mech Eng G: J Aerosp Eng 2021.

11.

Unknown. CONCORDE SST . Technical specs. Unknown edition. Private, 2020.

12.

Kurzhe

. The mission defines the cycle: turbojet, turbofan and variable cycle engines for high speed propulsion. Dachau, Germany: NATO Research and Training Organisation, 2010.

13.

Koff

. Engine design and challenges for the high Mach transport. In: 43rd AIAA/ASME/SAE/ASEE joint propulsion conference exhibit. Cincinnati, OH, 8–11 July 2007.

14.

Smith

. 21st century high speed transport propulsion. In: 24th joint propulsion conference. Boston, MA, 11–13 July 1988.

15.

Mathieu

Marin

Stephenson

, et al. Preliminary design of a N + 1 overwater supersonic commercial transport aircraft. In: 55th AIAA aerospace sciences meeting, Grapevine, TX, 9–13 January 2017.

16.

Kraev

Siluyanova

Tikhonov

. Creation of supersonic civil aviation in russia. Russ Engin Res 2020; 40: 755–758.

17.

Morris

Winston

Morris

. Some key considerations for high-speed civil transports. In: AIAA aircraft design, systems and operations conference, Atlanta, GA, 7–9 September 1988.

18.

Wang

Kang

Huang

, et al. Effect of heating on the load-carrying structure mass. Russ Aeronaut 2014; 57: 45–54.

19.

Anderson

. Fundamentals of Aerodynamics. 6th edition. New York: McGraw-Hill, 2017.

20.

McNelis

Bartolotta

. Revolutionary turbine accelerator (RTA) demonstrator. In: AIAA/CIRA 13th international space planes and hypersonics systems and technologies conference, Reston, VA, 16–20 May 2005.

21.

Tavares

. A supersonic fan equipped variable cycle engine for a Mach 2.7 supersonic transport. NTRS-NASA: NASA, 1985.

22.

Connolly

Kopasakis

Chwalowski

, et al. Aero-propulso-elastic analysis of a supersonic transport. J Aircr 2020; 57: 569–585.

23.

Volkov

Mazhul

. Numerical investigation of the influence of the configuration parameters of a supersonic passenger aircraft on the intensity of sonic boom. J Eng Phys Thermophy 2018; 91: 161–171.

24.

Tacina

Lee

C-M

Wey

. NASA Glenn high pressure low NOx emissions research. Cleveland, OH: Glenn Research Center, 2008.

25.

Morris

Foss

Russell

. Assessment of variable cycle engines for Mach 2.7 supersonic transports. Cleveland, OH: NASA, 1976.

26.

Aleid

Pilidis

. Variable cycle jet engines for a Mach 2· 7 supersonic civil transport. Aeronaut J 1998; 102: 31–36. DOI: 10.1017/S0001924000065714.

27.

Szeliga

Allan

. Advanced supersonic technology propulsion system study. Cleveland, OH: NASA, 1974.

28.

Whitney

Electric

. Critical propulsion components. NTRS-NASA technical reports server. Cleveland, OH: NASA, 2005.

29.

Whitney

Electric

. NTRS-NASA Technical Reports Server. Cleveland, OH: NASA, 1 May 2005. Critical Propulsion Components.

30.

Raymer

. Aircraft design: A conceptual approach. New York: AIAA, 2012.

31.

(IATA) IATA . Jet fuel price monitor. IATA, 2020, https://www.iata.org/en/publications/economics/fuel-monitor/.

32.

Airbus A330 private jet charter, hire costs, and rental rates. Paramount Business Jets, 2020, https://www.paramountbusinessjets.com/aircraft/airbus-a330.html.

33.

(ICAO) ICAO . Airline operating costs and productivity. Economic Development: No Country Left Behind, 2017, https://www.icao.int/MID/Documents/2017/Aviation%20Data%20and%20Analysis%20Seminar/PPT3%20-%20Airlines%20Operating%20costs%20and%20productivity.pdf?source=post_page.

34.

Hadhazy

. Supersonic's not-so-super emissions. Aerosp America 2019; 57: 22–29.

35.

Chen

Zhang

, et al. Study on integrated control for supersonic inlet and turbofan engine model. Proc Inst Mech Eng G: J Aerosp Eng 2020; 235: 356–367. DOI: 10.1177/0954410020944068.