Turbine Aerodynamics: Axial-flow and
radial-inflow turbine design and analysis
In this book, Ronald Aungier provides a
thorough description of actual working aerodynamic design and analysis
systems, for both axial-flow and radial-inflow turbines. He describes
the basic fluid dynamic and thermo-dynamic principles, empirical methods,
and numerical methods used for the full range of procedures and analytical
tools that an engineer needs for virtually any type of aerodynamic design
or analysis activity for both types of turbine. The author includes sufficient
detail for readers to implement all or part of the systems. He also provides
practical and effective design strategies for applying both turbine types,
which are illustrated by design examples. Comparisons with experimental
results are included to demonstrate the prediction accuracy to be expected.
This book is intended for practicing engineers concerned with the design
and development of turbines and related machinery.
Dynamic Modelling of Gas Turbines: Identification,
simulation, condition monitoring and optimal control
A survey of methods associated with the
control and systems identification of gas turbines, this book reviews
current methods and presents a number of new perspectives. It describes
a total modeling and identification program for various classes of aeroengine,
allowing the reader to deal with the engine's behavior over its
complete life cycle. It also shows how this regimen can be applied to
a real engine, balancing the theory with practical use. The editors offer
a choice of controllers and models from the tried-and-trusted to the most
up-to-date evolutionary optimization models. The editors say their intention
is to present work in modeling, optimal control, and systems identification
to help the reader get the most from his engine designs.
A hefty compendium of calculation methods, this volume delivers fast, accurate solutions to the toughest day-to-day mechanical engineering problems, according to the publisher. Its readers will find numbered, step-by-step procedures for solving specific problems together with examples that give numerical results for the calculation. This new edition features methods for automatic and digital control, alternative and renewable energy sources, plastics in engineering design, and more. The book is divided into four parts: power generation, plant and facilities engineering, environmental control, and design engineering. Author Tyler G. Hicks, an ASME member, is a consulting engineer who has worked in plant design and operation in several industries.
Author Hiroshi Yamagata is employed by Yamaha Motor Co. Ltd., Japan, so he is in position to discuss the nature of materials in automotive engines. He focuses on both two- and four-stroke reciprocating engines, with particular emphasis on their characteristics and the types of materials used in their construction. Each part of the engine is considered: the cylinder, piston, camshaft, valve, crankshaft, connecting rod, and catalytic converter. Materials used in car engines must fulfill many functions. There is a subtle balance among material properties, essential design, and high-performance characteristics. This book describes the metallurgy, chemical composition, manufacturing, heat treatment, and surface modification of these materials.
Fundamentals of Structural Stability
Written by two leading mechanical engineering
researchers and professors, Fundamentals of Structural Stability introduces
the reader to both a classical and an advanced understanding of the mechanical
behavior of systems under load. It illustrates how modeling the resulting
strains can predict the overall future performance—the stability—of
a particular structural system. The book provides a focused study of how
structures behave and perform when under stress loading, including plastic
deformation and buckling. The authors cover traditional beam theory as
well as modern approaches such as elastic theory.
Modelling and Simulation of Turbulent
Heat Transfer
Providing useful information for both graduate
researchers and research and development engineers in industry and consultancy,
the book's overall objective is to present state-of-the-art knowledge
in order to predict turbulent heat transfer processes in fundamental and
idealized flows as well as in engineering applications. The chapters,
which are invited contributions from some of the most prominent scientists
in this field, cover a range of topics and follow a unified outline to
aid accessibility.
Magnetic Actuators and Sensors
This book features computer-aided engineering
methods that are used in the design and application of magnetic actuators
and sensors, using the latest software tools. The text is divided into
four distinct parts. Part One, "Magnetics," offers an introduction
to magnetic actuators and sensors as well as basic electromagnetics followed
by other magnetic performance parameters. Part Two, "Actuators,"
explores dc and ac actuators, and magnetic actuator transient operation.
Part Three, "Sensors," details Hall effect and magnetoresistance
as they apply to sensing position. Part Four, "Systems,"
covers aspects of systems common to both magnetic actuators and sensors,
including coil design and temperature calculation, electromagnetic compatibility,
electromechanical finite elements, and electromechanical analysis using
system models.
Thermodynamics: Concepts and Applications
The focus of this book is on traditional
engineering thermodynamics topics. However, the structure provides a broader
context for thermodynamics within the thermal-fluid sciences. The subject
matter is also arranged hierarchically, rather than as a collection of
assorted topics. Chapter 2 epitomizes this approach, with essentially
all material related to thermodynamic properties, including property relationships
and processes, contained within a single chapter. This arrangement allows
students to connect topics in a logical manner, without necessarily proceeding
through the chapter in a linear manner. Each chapter concludes with similar
sections: summary, key concepts and definitions checklist, references,
nomenclature, questions, and problems. The author is an ASME member.
Walking: Biological and Technical Aspects
This book is based on lectures, articles,
and proceedings from the International Centre for Mechanical Sciences
in Udine, Italy. Among the topics covered here are: "Biological
Aspects of Locomotion," "Locomotion in Complex Terrain,"
"Evolution of Vertebrate Locomotory Systems," "Technological
Aspects of Walking," and "Motion Synthesis." There
are 141 illustrations and each article has an extensive bibliography to
aid the reader.
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© 2006 by The American Society of Mechanical Engineers