Fundamentals of Turbomachinery

Theory and Applications

Inbunden, Engelska, 2025

Av Ryoichi Samuel Amano, William W. Peng, USA) Amano, Ryoichi Samuel (University of Wisconsin-Milwaukee, USA) Peng, William W. (California State University, Fresno, William W Peng

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An accessible and up-to-date discussion of foundational turbomachine technology In the newly revised second edition of Fundamentals of Turbomachinery: Theory and Applications, a team of distinguished researchers delivers an accessible introduction to turbomachinery, taking readers from a foundational understanding of the subject to application-ready knowledge. The book explores basic and advanced turbomachinery technologies, including fans, blowers, and compressors, as well as gas turbines, steam turbines, hydro turbines, wind turbines, and hybrid power generation, among others. The book also covers emerging technologies in the field, such as simulation technologies, computer-assisted design, security issues, and the impact of artificial intelligence (AI) technology. Readers will also find: A straightforward introduction to turbomachinery that equips students to select turbomachines in practice confidentlyComprehensive explorations of hybrid power generation, including coverage of contemporary energy capture and storage technologyPractical discussions of hydroelectric turbines, including Pelton, Francis, and Kaplan turbinesComplete treatments of radial, mixed-flow, and axial flow pumps and compressorsPerfect for undergraduate and graduate students with an interest in turbomachinery, Fundamentals of Turbomachinery: Theory and Applications will also benefit technical engineers, practicing researchers, and students at technical and junior colleges.

Produktinformation

Utgivningsdatum2025-10-20
Mått261 x 208 x 31 mm
Vikt1 080 g
FormatInbunden
SpråkEngelska
Antal sidor432
Upplaga2
FörlagJohn Wiley & Sons Inc
ISBN9781394273546

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Ryoichi S. Amano, PhD, is an expert in turbomachinery and current energy technologies. He is the Director of the US Department of Energy funded Industrial Assessment Center for a leading institution covering the US Midwest Region. He is the Chief Editor for the International Journal of Rotating Machinery (Wiley). He also served as an associate editor for the ASME Trans—Journal of Energy Resources Technology and the Journal of Fluids Engineering. Dr. Amano's research achievements have been recognized through prestigious international awards, such as the AIAA Energy Systems Award, the ASME George Westinghouse Gold Medal, and the ASME Henry R. Worthington Medal. Dr. Amano is currently a Fellow of the Royal Aeronautical Society, a Fellow of ASME, a Fellow of ISEES, and a member of several other organizations. Dr. Amano has published four books and over 250 journal articles.William W. Peng was a professor emeritus of mechanical engineering at California State University, Fresno. He obtained a BSME degree from National Taiwan University in 1965, an MS and a PhD in Aeronautics & Astronautics from Stanford University in 1968, and a PhD in Aeronautics & Astronautics from Stanford University in 1973. After working for eight years in the private industry, both as a turbomachine manufacturer and user, he began his academic career at Texas A&M University in 1981. Then he moved to California State University in 1984, where he taught the senior turbomachinery and graduate gas turbine classes. He had extensive experience in the design and application of centrifugal pumps and fans/blowers, gained through his regular job and consulting work with various industries.

Preface xvSymbols xviiAbout the Companion Website xx1 Introduction 1 1.1 Definition 11.2 Types of Turbomachines 11.3 Applications of Turbomachines 31.4 Performance Characteristics 51.5 Method of Analysis 71.6 Historical Evolution of Turbomachines 101.7 Organization of the Book 122 Basic Theories 152.1 Similitude 152.2 Energy Transfer in Turbomachines 273 Pumps 493.1 Centrifugal Pumps 493.2 Axial-Flow Pumps and Fans 884 Compressors 1274.1 Centrifugal Fans, Blowers, and Compressors 1274.2 Axial-Flow Compressors 1735 Gas Turbines 1955.1 Introduction 1955.2 Radial-Inflow Gas Turbine 1965.3 Thermodynamic Processes in Radial-Inflow Gas Turbine 1995.4 Thermodynamics of Axial-Flow Turbine 2025.5 Degree of Reaction 2045.6 Preliminary Design Procedure for Turbine Stage 2075.7 Determination of Turbine Stage Efficiency 2095.8 Axial-Flow Turbine Performance 2105.9 Compressor and Turbine Matching 2145.10 Other Topics Related to Gas Turbine Engine 2185.11 Applications of Gas Turbine Engines 2215.12 Manufacturing Challenges on High-Temperature Gas Turbine Components 2256 Steam Turbines 2556.1 Introduction 2556.2 Velocity-Compounded Stage 2566.3 Classification of Steam Turbines 2596.4 Steam Turbine Parameters and Performance 2616.5 Cogeneration and Combined-Cycle Plants 2667 Hydraulic Turbines 2717.1 Introduction 2717.2 Pelton Turbines 2837.3 Francis Turbines 2857.4 Kaplan Turbines 2898 Wind Turbines 3058.1 Introduction to Wind Power 3058.2 Actuator Theory 3078.3 Types of Wind Turbines 3088.4 Wind Turbine Characteristics and Preliminary Design Analysis 3108.5 Variable-Speed Performance of Wind Turbines 3168.6 Wind Turbine Applications 3188.7 Icing Problem 3199 Artificial Intelligence as a New Frontier in Turbomachinery Design and Applications 3299.1 Introduction 3299.2 Machine Learning 3309.3 Data Governance 3349.4 Revolutionizing Turbomachinery with Machine Learning 3389.5 Conclusions 34010 Computational Fluid Dynamics in Turbomachinery 34710.1 Introduction 34710.2 CFD Application Advances in Turbomachinery 34710.3 Fundamentals of CFD Methodologies in Turbomachinery 34810.4 Applications of CFD in Turbomachinery Design and Analysis 352A Review on Thermodynamics and Compressible Flow 365A. 1 Thermodynamic Properties 365A. 2 Thermodynamic Processes 365A. 3 Other Thermoflow Properties 368A. 4 Adiabatic Efficiencies of Flow Components 369A. 5 Thermodynamic Cycles 372A. 6 Thermodynamic Cycles of Gas Turbine Engines 372A. 7 Rankine Cycles with Vapor 380A. 8 Compressible Flow Through a Channel 381A. 9 Normal Shock Waves 385A. 10 Oblique Shock Waves 388B Airfoil Characteristics 393B. 1 Flow Over Objects 393B. 2 Airfoil Geometry 394B. 3 NACA Airfoil Specifications 394C conversion Factors and Some constants 399D Thermodynamic Properties of Air, Water, Superheated Steam, and CO 2 at STP (14.7 psia, 60 ∘ F) 401E Internal Diameter of Standard Pipe of Schedule 40 403Index 405