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Fuel Effects on Operability of Aircraft Gas Turbine Combustors [Kietas viršelis]

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  • Formatas: Hardback, 632 pages, weight: 988 g
  • Serija: Progress in Astronautics and Aeronautics
  • Išleidimo metai: 30-Oct-2021
  • Leidėjas: American Institute of Aeronautics & Astronautics
  • ISBN-10: 162410603X
  • ISBN-13: 9781624106033
Kitos knygos pagal šią temą:
  • Formatas: Hardback, 632 pages, weight: 988 g
  • Serija: Progress in Astronautics and Aeronautics
  • Išleidimo metai: 30-Oct-2021
  • Leidėjas: American Institute of Aeronautics & Astronautics
  • ISBN-10: 162410603X
  • ISBN-13: 9781624106033
Kitos knygos pagal šią temą:
Alternative jet fuel has been an active area of research and development since the 1973 oil embargo. Research goals have included establishing energy security, lowering fuel costs, and reducing emissions with a focus on developing cost-effective methodologies for processing and sustaining jet fuel production from shale, tar sands, coal, biomass, end use waste, and CO2. Physical and chemical properties, such as the viscosity, vapor pressure, boiling range, freeze point and hydrogen content, have been measured for many potential alternative jet fuels. Combustion characteristics, such as lean blow-out and ignition, have also been investigated in gas turbine engines and fundamental combustion devices. The compilation of this research has resulted in a large technical base for understanding the combustion of alternative jet fuels that have a wide range of physical and chemical properties and operating in different combustion devices.

This book demonstrates that there is still much to be learned about the combustion of alternative jet fuels. It summarizes the results obtained in the first five years of the National Jet Fuel Combustion Program (NJFCP). The NJFCP community is represented by more than 40 organizations including federal agencies, national and international universities and research organizations, and industrial engine and fuel producers. The core funding for the program is provided by the FAA, NASA, DLA, AFOSR, NAVAIR, ARL and AFRL. Even through the program reflects "National" in its title it has evolved and morphed into an international program with participation and contributions from teams representing Canada, the UK, and Germany with each providing their own financial resources. The European Union developed its own program called JETSCREEN with objectives that complement those of the NJFCP, with some JETSCREEN activities reported here.
Preface xiii
Chapter I Introduction
1(20)
Meredith Colket
East Hartford
Joshua Heyne
Gurhan Andac
Mark Rumizen
I Background
1(11)
II Cost-Effective Approach to the AJF Evaluation Process
12(1)
III FOM, Test Targets, and Conditions
13(5)
IV Structure of the Book
18(3)
Acknowledgments
19(1)
References
19(2)
Chapter II Historical Perspective on Fuel Effects
21(46)
Jamey Condevaux
Melanie Kimble-Thom
Tim Edwards
Meredith Colket
I Background
21(3)
II Fuel Effects on Combustion: 1970s-1980s Alternative Fuel Programs
24(13)
III The JP-4-to-JP-8 Conversion
37(2)
IV Synthetic Fuels Compared to Contemporary Jet A, Jet A-1, and JP-8 Kerosene
39(17)
V Evaluation of Alternative Fuels by Aircraft Engine Manufacturers
56(3)
VI National Jet Fuel Combustion Program
59(8)
Acknowledgments
60(1)
References
60(7)
Chapter III Reference Jet Fuel Selection and Properties
67(48)
Tim Edwards
I Introduction
68(12)
II Conventional/Reference Fuels: Category A
80(3)
III Test Fuels: Category C
83(16)
IV Controlled-Cetane Fuels
99(3)
V Surrogate Fuels
102(7)
VI Summary
109(6)
Acknowledgments
109(1)
References
109(6)
Chapter IV Referee Rig
115(28)
Scott Stouffer
Tyler Hendershott
Randy Boehm
Jeffery Lovett
I Background/Motivation
115(7)
II Referee Rig Combustor
122(10)
III Experimental Combustion Facility
132(8)
IV Relationship of the Referee Rig to Other Work Presented in the Book
140(3)
Acknowledgments
141(1)
Distribution Statement
141(1)
References
141(2)
Chapter V Lean Blowout Studies
143(54)
Nicholas Rock
Scott Stouffer
Tyler Hendershott
Joshua Heyne
David Blunck
Lukai Zheng
Bhupendra Khandelwal
Benjamin Emerson
Epaminondas Mastorakos
Meredith Colket
I Motivation
144(2)
II Background
146(3)
III Combustor Rigs
149(11)
IV Fuels
160(1)
V Other LBO Fuel Sensitivity Experiments
160(3)
VI LBO Results
163(16)
VII Regression Analysis
179(3)
VIII Near-LBO Phenomenology
182(5)
IX Conclusions
187(10)
Acknowledgments
189(1)
References
189(8)
Chapter VI Ignition
197(58)
Brandon Sforzo
Jerry Seitzman
Sheng Wei
Scott Stouffer
Jeff Monfort
Tyler Hendershott
Katherine Opacich
Randy Boehm
Pervez Canteenwalla
Wajid A. Chishty
Tonghun Lee
Eric Mayhew
Jacob Temme
Choi-Bum M. Kweon
I Introduction
198(5)
II Experimental Methods
203(13)
III Results
216(27)
IV Discussion of Controlling Mechanisms and Fuel Effects
243(6)
V Summary
249(6)
Acknowledgments
250(1)
References
251(4)
Chapter VII Chemical Kinetics
255(40)
J. W. Park
C. Xu
Y. Gao
T. F. Lu
J. K. Shao
N. H. Pinkowski
S. Wang
Y. Wang
Y. Cao
R. K. Hanson
D. F. Davidson
M. B. Colket
I Overview
255(3)
II Detailed HyChem Models
258(4)
III Shock-Tube/Laser Studies in Support of HyChem
262(14)
IV Reduced Models
276(10)
V Conclusions
286(9)
Acknowledgments
287(1)
References
288(7)
Chapter VIII Spray Characteristics of Conventional and Alternative Fuels
295(70)
D. Shin
V. R. Hasti
A. J. Bokhart
N. S. Rodrigues
P. E. Sojka
R. P. Lucht
J. P. Gore
N. Rizk
P. A. Corber
I Introduction
296(6)
II Purdue Experimental Test Facility and Conditions
302(9)
III Purdue Results and Discussion
311(20)
IV Semiempirical Spray Correlations Based on Purdue Data
331(17)
V Semiempirical Spray Correlations Based on NRC Data
348(8)
VI Supplementary Material: Spreadsheet Model for Spray Input/Output Calculations
356(5)
VII Summary
361(4)
References
362(3)
Chapter IX CFD Modeling of Lean Blowout and Ignition Fuel Sensitivity
365(54)
M. S. Anand
Jeffery A. Lovett
Jeffrey A. Moder
Thomas Wey
Matthias Ihme
Lucas Esclapez
Peter C. Ma
Suresh Menon
Achyut Panchal
Veeraraghava Raju Hasti
Jay Gore
Pritwish Kundu
Sibendu Som
Venkat Raman
Yihao Tang
Fang Xu
Vaidya Sankaran
I Introduction
365(2)
II Lean Blowout Simulations
367(37)
III Ignition Simulations
404(8)
IV Overall Conclusions
412(7)
Acknowledgments
413(1)
References
413(6)
Chapter X Fuel Impacts on Combustor Efficiency and Emissions
419(38)
Edwin Corporan
Bhupendra Khandelwal
Lukai Zheng
Wajid Chishty
Pervez Canteenwalla
Tak W. Chan
Brad Culbertson
Matthew DeWitt
Chris Klingshirn
Zach West
I Introduction
420(1)
II Experimental Methods
421(15)
III Test Results
436(18)
IV Summary
454(3)
Acknowledgments
454(1)
References
454(3)
Chapter XI Impact on Approval of New Alternative Fuels
457(30)
Gurhan Andac
Mark Rumizen
Brad Culbertson
Steven Zabarnick
I Overview of the ASTM D4054 Evaluation Process
457(16)
II Potential Contributions to ASTM D4054 OEM Evaluation and Approval of Candidate Fuels
473(5)
III Flight Test Demonstrations of Candidate Alternative Jet Fuels
478(6)
IV Summary
484(3)
References
484(3)
Chapter XII Prescreening of Sustainable Aviation Jet Fuels
487(38)
Joshua Heyne
Zhibin Yang
Randy Boehm
Bastian Rauch
Patrick Le Clercq
Ron Hanson
Alison Ferris
Stephen Dooley
Andrew Ure
Simon Blakey
Chris Lewis
Meredith Colket
I Introduction and Need for Prescreening
487(4)
II Brief Descriptions of Prescreening Elements
491(2)
III Stanford University Tier a Procedure
493(4)
IV Trinity College Dublin NMR Tier a Procedure
497(6)
V University of Dayton Tier a Procedure
503(4)
VI DLR Tier a Procedure
507(5)
VII Summary of Tier a Methods
512(1)
VIII Tier/3 Procedure
512(5)
IX Summary and Conclusions
517(8)
Acknowledgments
519(1)
References
519(6)
Chapter XIII Summary
525(10)
Joshua Heyne
Meredith Colket
Tim Edwards
Jeffrey P. Moder
Mark Rumizen
Anna Oldani
I Introduction
525(1)
II Summary of Results
526(7)
III Projected Impact of Work
533(1)
IV Future Work
534(1)
References
534(1)
Appendix A Statistical Analysis of Fuel Properties
535(28)
Lisa Simpkins
Jamey Condevaux
Walled Lake
Michigan
I Reference Fuels Statistical Study Introduction
535(1)
II PQIS Database
535(3)
III PQIS Statistical Study 2002-2008: Property Distributions
538(23)
IV Conclusions from the PQIS Statistical Analyses
561(2)
References
561(2)
Appendix B Property Data for Category A and Category C Fuels
563(50)
Tim Edwards
I Category A Fuels (A-1, A-2, A-3)
563(48)
II Category C Fuels
611(2)
References
611(2)
Appendix C Code Structure for the Universal Reduced Kinetics Model
613(3)
Ji-Woong Park
I Brief Description of the Universal Reduced/skeletal Kinetic Model
613(2)
II Initialization and Rate Subroutines for the Universal Reduced/skeletal Kinetic Model
615(1)
III Reaction Rate Subroutines for the Reduced Kinetic Model (CKWYP/CKWYR)
615(1)
Reference 616(1)
Index 617(16)
Supporting Materials 633