TY - GEN
T1 - Design and development of the D8 commercial transport concept
AU - Yutko, Brian
AU - Titchener, Neil
AU - Courtin, Christopher
AU - Lieu, Michael
AU - Wirsing, Larry
AU - Hall, David
AU - Tylko, John
AU - Chambers, Jeffrey
AU - Roberts, Thomas
AU - Church, Clint
N1 - Funding Information:
This work was sponsored by NASA, Contract #NND151C56C. Opinions, interpretations, conclusions, and recommendations are those of the authors and are not necessarily endorsed by the United States Government. The authors would like to acknowledge the management support of Brent Cobleigh, Rich DeLoof, and Mike Guminsky at NASA. The authrs woould also like to thnk athe talented team at Aurora Flight Sciences that have contributed to this work: Ian Bilyj, Matt Carstensen, Clinton Church, Stephen Clark, Andrew Coe, Patrick Co, Pxaul Dahlstran, d Amanda Dropkins, Jeff Ensminger, Patrick Garrett, Jonas Gonzalez, Riley Griffin, Deborah Hoffman, Dr. Matthew Hutchison, Cody Jacobucci, Alex Kim, Dr. John Langford, Abraham Oonnoonny, Gary Papas, Alex Peraire, Vincent Posbic, Jason Ryan, Raymond Sin, gh Nina Siu, Jay Snider, Corey Stein, William Thalheimer, Josh Torgerson, Adam Treager, Nathan Varney, Ed Wen, and Travis Whitfield. The authors would especially like to thank Olivr e Masefield for his invaluable technical contributions and commitment to the D8 team. Thanks also to the great researchers at MIT for both their past and current contributions to making the D8 a reality, including bt notulimited to Professor Mark Drela, Professor Ed Greitzer, Professor John Hansman, Professor Warren Hoburg, Luke Jensen, Pilliphpe Kirschen, Berk Ozturk, Jacquie Thomas, and Martin York. Lastly, the authors would like to thank the following individuals for their review and int pu during technical interchange meetings throughout the program: Scott Anders, Milind Birajdra, Richard Bradshaw, Mary Colby, Fay Collier, Dr. Alan Epstein, Starr Ginn, James Heidmann, Christopher Hughes, Nils Larson, Mary Jo Long-Davis, Wesley Lord, John Melton, Bruce Morin, Andrew Murphy, Zienna Nalles, Bradford Neal, Scott Ochs, Steve O’Flarity, Wally Orisamolu, Shishir Pandya, Gabriel Suciu, Neil Terwilliger, Dan Vicroy, Richard Wahls, Jason Welstead, et. al. Opinions, interpretations, conclusions, and recommendations in this paper are those of the authrs aond are not necessarily by the above individuals.
Publisher Copyright:
© 31st Congress of the International Council of the Aeronautical Sciences, ICAS 2018. All rights reserved.
PY - 2018
Y1 - 2018
N2 - The conceptual design of a subsonic, environmentally efficient, twin-aisle commercial airliner is presented (previously presented by Yutko et al [1]). The D8 double-bubble aircraft - named for its complex, non-round fuselage shape - originated from NASA's N+3 Phase I study in which participants designed efficient commercial aircraft for market entry in the 2035 timeframe. Previous computational and experimental work has established the potential of the D8 configuration to significantly reduce environmental impact of aviation. However, the integration of engines and airframe, as well as the non-round fuselage with central support element, pose many challenges for the airframe designer. In this paper, the conceptual design of a D8 aircraft is presented: the aircraft is designed to comply with FAR 25 requirements and air transportation system constraints; airframe structural solutions for the unique configuration challenges of the D8 are presented; aircraft weight and balance and airline operations are analyzed; aerodynamic lofting and performance is accomplished with CFD; and performance of the boundary layer ingesting (BLI) propulsion system is investigated. Results are presented for two D8 concepts. First, a concept for a D8 with an entry-into-service (EIS) of 2016 was designed that utilizes current engine technology and existing composite manufacturing techniques, and it is demonstrated that such an aircraft is capable of saving between 25-30% fuel when compared with a Boeing 737-800. Second, a concept for a vision system with EIS prior to 2035 that is capable of meeting NASA's mid-term environmental goals was designed. An air transportation system analysis was completed using these aircraft and it is shown that the D8 configuration has the potential to reduce narrowbody system fuel consumption by 52% and significantly reduce community noise impacts based on an analysis of the top 20 United States airports.
AB - The conceptual design of a subsonic, environmentally efficient, twin-aisle commercial airliner is presented (previously presented by Yutko et al [1]). The D8 double-bubble aircraft - named for its complex, non-round fuselage shape - originated from NASA's N+3 Phase I study in which participants designed efficient commercial aircraft for market entry in the 2035 timeframe. Previous computational and experimental work has established the potential of the D8 configuration to significantly reduce environmental impact of aviation. However, the integration of engines and airframe, as well as the non-round fuselage with central support element, pose many challenges for the airframe designer. In this paper, the conceptual design of a D8 aircraft is presented: the aircraft is designed to comply with FAR 25 requirements and air transportation system constraints; airframe structural solutions for the unique configuration challenges of the D8 are presented; aircraft weight and balance and airline operations are analyzed; aerodynamic lofting and performance is accomplished with CFD; and performance of the boundary layer ingesting (BLI) propulsion system is investigated. Results are presented for two D8 concepts. First, a concept for a D8 with an entry-into-service (EIS) of 2016 was designed that utilizes current engine technology and existing composite manufacturing techniques, and it is demonstrated that such an aircraft is capable of saving between 25-30% fuel when compared with a Boeing 737-800. Second, a concept for a vision system with EIS prior to 2035 that is capable of meeting NASA's mid-term environmental goals was designed. An air transportation system analysis was completed using these aircraft and it is shown that the D8 configuration has the potential to reduce narrowbody system fuel consumption by 52% and significantly reduce community noise impacts based on an analysis of the top 20 United States airports.
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M3 - Conference contribution
AN - SCOPUS:85060440659
T3 - 31st Congress of the International Council of the Aeronautical Sciences, ICAS 2018
BT - 31st Congress of the International Council of the Aeronautical Sciences, ICAS 2018
PB - International Council of the Aeronautical Sciences
T2 - 31st Congress of the International Council of the Aeronautical Sciences, ICAS 2018
Y2 - 9 September 2018 through 14 September 2018
ER -