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Rocket Propulsion [Kõva köide]

(Purdue University, Indiana), (Purdue University, Indiana), (Purdue University, Indiana),
  • Formaat: Hardback, 586 pages, kõrgus x laius x paksus: 260x183x30 mm, kaal: 1360 g, Worked examples or Exercises; 45 Tables, black and white; 68 Halftones, black and white; 249 Line drawings, black and white
  • Sari: Cambridge Aerospace Series
  • Ilmumisaeg: 07-Feb-2019
  • Kirjastus: Cambridge University Press
  • ISBN-10: 1108422276
  • ISBN-13: 9781108422277
Teised raamatud teemal:
  • Formaat: Hardback, 586 pages, kõrgus x laius x paksus: 260x183x30 mm, kaal: 1360 g, Worked examples or Exercises; 45 Tables, black and white; 68 Halftones, black and white; 249 Line drawings, black and white
  • Sari: Cambridge Aerospace Series
  • Ilmumisaeg: 07-Feb-2019
  • Kirjastus: Cambridge University Press
  • ISBN-10: 1108422276
  • ISBN-13: 9781108422277
Teised raamatud teemal:
Equips students with a thorough up-to-date knowledge of rocket propulsion, along with practical tools that can be applied in industry. Numerous homework problems, an online solutions manual, real-life case studies and examples, numerical methods, and links to online materials are all included. Ideal for senior and first year graduate students.

A modern pedagogical treatment of the latest industry trends in rocket propulsion, developed from the authors' extensive experience in both industry and academia. Students are guided along a step-by-step journey through modern rocket propulsion, beginning with the historical context and an introduction to top-level performance measures, and progressing on to in-depth discussions of the chemical aspects of fluid flow combustion thermochemistry and chemical equilibrium, solid, liquid, and hybrid rocket propellants, mission requirements, and an overview of electric propulsion. With a wealth of homework problems (and a solutions manual for instructors online), real-life case studies and examples throughout, and an appendix detailing key numerical methods and links to additional online resources, this is a must-have guide for senior and first year graduate students looking to gain a thorough understanding of the topic along with practical tools that can be applied in industry.

Arvustused

'This text is destined to be a classic in modern rocket propulsion systems. It is an outstanding comprehensive volume that is very well suited for seniors or early graduate students in aerospace engineering. The technical background and analyses are nicely complemented by historical perspectives and a terrific array of challenging technical problems within each chapter.' Ann Karagozian, University of California, Los Angeles 'This text provides a complete description of rocket propulsion with tools and techniques provided to support vehicle conceptual design and detailed component design. Liquid engines and solid rocket motors are given equal attention. This well-written book provides a wonderful explanation of rocket propulsion fundamentals and a great set of homework problems.' Dean Misterek, Blue Origin, LLC 'This book begins with an entertaining historical background of rocketry and covers the basic theories and principles of rocket science as well as complete, up-to-date information on the rocket industry, including electric propulsion. Homework problems, meticulously designed by the authors who have a few decades of academic and industrial experience, are enriching, practical, and insightful for both students and field engineers.' Sam Yoon, Korea University 'The authors deliver a welcome and much needed addition to the limited collection of textbooks on rocket propulsion. Its detailed coverage of combustion and thermochemistry is particularly well done and noteworthy - a topic whose details are too often glossed over in other propulsion texts. Written in a clear and approachable style, and offering numerous homework problems, this text is an excellent choice for a senior undergraduate or graduate course in rocket propulsion.' Darren Hitt, University of Vermont 'Rocket Propulsion is an extremely useful addition to the limited textbook resources available in this area. It is written to a very high standard and covers all of the major technological areas and disciplines relevant to the field. It also includes a large number of worked examples and supplementary 'homework' problems. The book is highly recommended for undergraduate and postgraduate study and also for anyone else working in the field in industry or academia.' Derek Bray, Cranfield University 'In Rocket Propulsion, a timely textbook for graduate students, the experience of authors, educators yet linked to industry, is a treasure not to be missed. I find a special care to guide students to understanding rather than just learning and a unique wealth of homework problems, making this book the perfect resource for my graduate students.' Francesco Nasuti, Sapienza Università di Roma ' an introduction to rocket engineering carefully structured for both graduate students and researchers to be able to easily access the basic knowledge of rocket systems. The most important feature of this book is the abundance of homework problems in each chapter This book also contains very useful information on chemical rocket systems such as liquid rocket engines, solid rocket motors, and hybrid rockets, which have attracted much attention in the 2000s. Also it introduces the electric propulsion rocket that is becoming a new space propulsion system for satellites. Particularly Chapter 12 provides a basic introduction to the complexity of combustion instability in conventional chemical propulsion systems and will serve as a primer for researchers working on related topics.' Changjin Lee, Konkuk University, Seoul 'Rocket Propulsion is an expertly organized and presented curriculum textbook and guide for senior and first year graduate students looking to gain a thorough understanding of the topic along with practical tools that can be applied in industry. While very highly recommended for college and university library collections, it should be noted for students, academia, and non-specialist general readers with an interest in the subject that Rocket Propulsion is also available in a digital book format.' Carl Logan, Midwest Book Review 'This text fills a void in the aerospace community for a comprehensive, up-to-date text to educate the next generation of rocket propulsion engineers. Some of these engineers will support NASA and the military's efforts to design and build new large launch vehicle and missile systems, while others will support the ever-growing number of new launch vehicle start-ups formed to develop low-cost launch options to serve the growing small satellite community. These new rocket propulsion engineers will be required to work on a broad range of complex problems for which a solid understanding of rocket propulsion fundamentals will be a key to their success. This book, in contrast to the few other available options, provides a complete treatment of rocket propulsion system fundamentals ranging from basic vehicle sizing to details on propulsion subsystem design. Many real-world examples and well-designed homework problems are provided in each chapter.' Dean Misterek, AIAA Journal 'Rocket Propulsion provides a comprehensive coverage of the core aspect of chemical (solid and liquid) rocket motor design. [ It] makes good use of relevant examples and case studies which help to ground much of the theoretical analyses presented this is a very good senior undergraduate or postgraduate level textbook covering key aspects of rocket propulsion with a focus on thermochemical rocket motor design.' Dr Katharine Smith, University of Manchester

Muu info

Equips students with an up-to-date practical knowledge of rocket propulsion, numerous homework problems, and online self-study materials.
Preface ix
Acknowledgments xii
1 Classification of Rocket Propulsion Systems and Historical Perspective 1(19)
1.1 Introduction
1(1)
1.2 A Brief History of Rocketry
1(9)
1.3 Classification of Rocket Propulsion Systems
10(9)
Further Reading
19(1)
2 Mission Analysis Fundamentals 20(27)
2.1 Classification of Rocket-Propelled Vehicles
20(3)
2.2 Mission Requirements for Launch Vehicles
23(5)
2.3 Mission Requirements for Upper-Stage or Orbital Transfer Vehicles
28(6)
2.4 Mission Requirements for Ballistic Missiles
34(3)
2.5 Mission Requirements for Interceptors
37(3)
2.6 Summary
40(1)
Further Reading
40(1)
Homework Problems
40(7)
3 Trajectory Analysis and Rocket Design 47(34)
3.1 Vertical Trajectories-The Rocket Equation
47(9)
3.2 Burning Time and Acceleration Effects
56(4)
3.3 Multistage Rockets
60(4)
3.4 Generalized Trajectories
64(5)
Homework Problems
69(12)
4 Rocket Nozzle Performance 81(53)
4.1 Review of Compressible Flow of a Perfect Gas
81(4)
4.2 Rocket Performance Fundamentals
85(12)
4.3 Designing Nozzle Aerodynamic Contours
97(3)
4.4 Non-Conventional Nozzles
100(2)
4.5 Two-Dimensional Flow Effects
102(3)
4.6 Nozzle Shocks and Separation
105(2)
4.7 Two-Phase Flow Losses
107(2)
4.8 Boundary Layer Losses
109(1)
4.9 Method of Characteristics for Axisymmetric Flows
110(3)
Further Reading
113(1)
Homework Problems
114(20)
5 Combustion and Thermochemistry 134(43)
5.1 Review of Perfect Gases
134(4)
5.2 Thermodynamics Review
138(5)
5.3 Chemical Equilibrium
143(6)
5.4 Calculating the Adiabatic Flame Temperature
149(4)
5.5 Rocket Nozzle Thermochemistry
153(1)
5.6 Computer Codes for Chemical Equilibrium Computations
154(3)
Further Reading
157(1)
Homework Problems
158(19)
6 Heat Transfer in Chemical Rockets 177(52)
6.1 Introduction
178(4)
6.2 Cooling Techniques Used in Rockets
182(6)
6.3 Heat Transfer Fundamentals
188(14)
6.4 Scaling of Convective Heat Transfer Processes
202(1)
6.5 Regenerative Cooling System Analysis
203(10)
Further Reading
213(1)
Homework Problems
214(15)
7 Solid Rocket Motors 229(53)
7.1 Introduction
229(1)
7.2 SRM Internal Ballistics
230(6)
7.3 Specific Impulse, Mass Flow, and Thrust Predictions
236(1)
7.4 Solid Rocket Motor Components
237(10)
7.5 Solid Rocket Propellants
247(10)
7.6 Thrust Vector Control and Throttleable Systems
257(4)
Further Reading
261(1)
Homework Problems
262(20)
8 Liquid Rocket Engines 282(66)
8.1 Introduction: Basic Elements of an LRE
282(4)
8.2 Monopropellant Systems
286(3)
8.3 Bipropellant Systems and Engine Cycles
289(9)
8.4 LRE Propellant Tanks
298(6)
8.5 LRE Thrust Chambers
304(5)
8.6 LRE Injectors
309(18)
8.7 LRE Combustor/Injector Design and Analysis
327(3)
8.8 LRE Unsteady Systems Analysis Using Lumped Parameter Methods
330(4)
8.9 A Note on Additive Manufacturing
334(2)
Further Reading
336(1)
Homework Problems
337(11)
9 Liquid Rocket Propellants 348(53)
9.1 Introduction: Classification of Liquid Propellants and Historical Perspective
348(3)
9.2 What is a Fuel? And What is an Oxidizer?
351(2)
9.3 Desirable Properties in Liquid Propellants
353(4)
9.4 Monopropellants
357(17)
9.5 Storable and Hypergolic Propellants
374(14)
9.6 Gelled Propellants
388(1)
9.7 Cryogenic Propellants
389(7)
9.8 Final Considerations
396(1)
Further Reading
397(4)
10 Rocket Turbomachinery Fundamentals 401(38)
10.1 Introduction: Elements of Rocket Turbopumps and Historical Perspective
401(8)
10.2 Pump Design Fundamentals
409(7)
10.3 Inducer Design
416(3)
10.4 Impeller Design
419(2)
10.5 Thrust Balance
421(1)
10.6 Pump Operating Envelope and CFD Analysis
422(2)
10.7 Turbine Fundamentals
424(4)
10.8 Shafts, Bearings, and Seals
428(6)
10.9 Rotordynamics
434(2)
10.10 A Note on Additive Manufacturing
436(2)
Further Reading
438(1)
11 Hybrid Rocket Engines 439(40)
11.1 Introduction: General Arrangement and History
439(3)
11.2 HRE Combustion Fundamentals
442(1)
11.3 HRE Lumped Parameter Ballistics
443(7)
11.4 HRE Ballistic Element Analysis
450(4)
11.5 HRE Combustion Theory
454(4)
11.6 HRE Propellants
458(2)
11.7 HRE Design
460(3)
Further Reading
463(1)
Homework Problems
464(15)
12 Combustion Instability 479(47)
12.1 Introduction: Overview and History
479(4)
12.2 Background
483(10)
12.3 Analysis
493(15)
12.4 Test Methods
508(13)
Further Reading
521(5)
13 Electric Propulsion Fundamentals 526(29)
13.1 Introduction
526(2)
13.2 Background: Historical Developments
528(1)
13.3 Fundamentals of Operation for EP Devices
528(11)
13.4 Types of Electric Propulsion Devices
539(6)
13.5 Electric Propulsion Applications
545(5)
13.6 System Design and Spacecraft Interactions
550(3)
Further Reading
553(1)
Homework Problems
553(2)
Appendix 555(15)
A.1 Numerical Methods
555(8)
A.2 Fluid Properties and Other Resources
563(7)
Index 570
Stephen Heister is the Raisbeck Distinguished Professor of Aeronautical Engineering at Purdue University, Indiana, and has previously worked in industry. He has served as an Associate Editor of The AIAA Journal of Propulsion and Power and is an elected Fellow of the American Institute of Aeronautics and Astronautics (AIAA). William Anderson is a Professor of Aeronautical Engineering and the Associate Head of Undergraduate Programs at Purdue University, Indiana. He is an Associate Fellow of the American Institute of Aeronautics and Astronautics (AIAA). Timothée Pourpoint is an Associate Professor of Aeronautical Engineering at Purdue University, Indiana. He is an Associate Fellow of the American Institute of Aeronautics and Astronautics (AIAA). Joe Cassady is the Executive Director for Space at Aerojet Rocketdyne, Washington Operations. He is an Associate Fellow of the AIAA and former Chair of the Electric Propulsion Technical Committee. He serves as Vice President of the Electric Rocket Propulsion Society, and Executive Vice President of ExploreMars Inc.