A reference to the vocabulary used by
pilots, cabin staff, maintenance crews, ground staff, and
trainees in any of those areas around the world in civil
aviation, where English is the universal language of
communication. Includes terms found in conjunction with purely
mechanical terms and well as the technical terms themselves. The
articles provide a brief definition, a guide to pronunciation,
and usually an example of usage. An appendix contains aircraft
registration codes, airline designators, and other information.
This revised text maintains the authors' philosophy of
emphasizing the basic principles of the physics of flight,
essential analytical techniques, and typical stability and
control realities. The addition of homework problems and a
solutions manual enhance its usefulness. The many worked
examples utilize real airplanes: the Boeing 747; a general
aviation airplane; and a STOL airplane. The increased importance
of automatic control (AFCS) is reflected in a much-expanded
chapter on this subject that prepares the student for work with
stability augmentation (SAS), autopilots and guidance systems.
A comprehensive introduction to
aeronautics for both majors and non-majors, covering the basics
of fluid mechanics (for aeronautics), the production of lift and
drag, and the effects of viscosity and compressibility, among
other topics. Frequently introduces applied aerodynamic methods
and explains design integration in many chapters. Provides
thorough coverage of the theory of circulation. For a
sophomore/junior/senior course in aeronautics.
The book contains chapters on Review of Fluid Mechanics,
Constant Density Inviscid Flow, Singular Pertubation Problems,
Effects of Viscosity, Thin Wing Theory, Slender Body Theory, 3D
Wings in Steady Subsonic Flow, 3D Thin Wings in Steady
Supersonic Flow, Supersonic Drag, Use of Flow Reversal Theorems,
Interference and Nonplanar Lifting Surface Theories, Transonic
Small Disturbance Flow, and Unsteady Flow.
Excellent text for all aero. students, still very relevant
information and still referred to by professional engineers. A
respectable addition to the book shelf. This is a classical text
for aeronautical engineering for the expert, expert-to-be or
novice. A large portion of the book deals with specific NACA
airfoils and the math is advanced. But even without the math,
one can glean much knowledge between these covers.
This book gives an account from first principles of the
aerodynamics of helicopter flight, concentrating on the
well-known Sikorsky configuration of single main rotor with tail
rotor. Early chapters deal with the aerodynamics of the rotor in
hover, vertical flight, forward flight and climb. Analysis of
these motions is developed to the stage of obtaining the
principal results for thrust, power and associated quantities
but the lengthy mathematical treatment of some textbooks is
avoided. Later chapters turn to the characteristics of the
overall helicopter, its performance, stability and control, and
the important field of aerodynamic research is discussed, with
some reference also to aerodynamic design practice.
Written with a building-block approach to learning to fly a
helicopter, this comprehensive textbook shows pilots the
underlying foundation of why the helicopter behaves the way it
does. Discussing the complexities of helicopter flight in clear
terms, this book explains the aerodynamic factors associated
with rotor stalls, mast bumping, and wind effect. Also included
are testing requirements and complete helicopter theory that
every pilot can grasp and use to best master this type of
aircraft.
Low-speed aerodynamics is important in the design and
operation of aircraft flying at low Mach number, and ground and
marine vehicles. This book offers a modern treatment of the
subject, both the theory of inviscid, incompressible, and
irrotational aerodynamics and the computational techniques now
available to solve complex problems. A unique feature of the
text is that the computational approach (from a single vortex
element to a three-dimensional panel formulation) is interwoven
throughout. Thus, the reader can learn about classical methods
of the past, while also learning how to use numerical methods to
solve real-world aerodynamic problems. This second edition
brings the first entirely up to date, with a new chapter on the
laminar boundary layer (emphasis on the viscous-inviscid
coupling), the latest versions of computational techniques, and
additional coverage of interaction problems. It includes a
systematic treatment of two-dimensional panel methods and a
detailed presentation of computational techniques for
three-dimensional and unsteady flows. With extensive
illustrations and examples, this book will be useful for senior
and beginning graduate-level courses, as well as a helpful
reference tool for practising engineers.
A comprehensive handbook for practitioners in the field of
aviation and aerospace engineering. Mechanical engineering
applications have been filtered to address aircraft and
spacecraft science and military engineering. There are
illustrations, tables, graphs, and statistics and
specifications.
More than half a century has elapsed since the first edition
of The Elements of Aerofoil and Airscrew Theory appeared in
1926, a period in which massive advances have been made in the
understanding and description of aerodynamic phenomena. Yet
Glauert was an acknowledged master of his subject and his book
remains the most lucid and best organised introduction to the
fundamental principles of aerodynamics that has ever been
written. This new paperback edition reprints the text of the
second edition of 1947, with supplementary notes by H. B.
Squire.
In keeping with the previous edition, Anderson carries over
the second edition content into the third edition while adding
selected topics and examples. There is new coverage on the
computational fluid dynamics (CFD) and new illustrations to help
the students to understand the basic concepts. More than a dozen
"design boxes" are included to help students focus on
the practical applications.
A behind-the-scenes look at the high-tech brain centers of
modern aviation, this essential reference probes the use of
computers in everything from new aircraft design and manufacture
to flight planning, weather forecasting, and air traffic
monitoring. Full of case studies, synopses of successful
applications, and interviews with industry leaders, it provides
a comprehensive overview of airline, military, government, air
traffic control, simulation, and communications systems, and
today' s cutting-edge avcomps software.
Written specifically for students of aeronautical engineering
covers not only the fundamentals of elasticity, but also the
associated topics of airworthiness and aeroelasticity. A
self-contained course in aircraft structures, coverage
corresponds to and complements the general course work from the
beginning of the second year of study through the advanced
topics of the final year. The first section covers includes
sufficient elasticity theory to provide the basic tools of
structural analysis, indicating the role and limitations of each
analytical method. The second section covers the analysis of the
thin-walled, cellular type of structure peculiar to aircraft and
features discussion of structural materials, the fabrication and
function of structural components, and an introduction to
structural idealization. This section also investigates
modifications necessary to account for axial constraint effects
and presents computational methods of structural analysis. Final
chapters cover airworthiness and aeroelasticity. Numerous worked
and unworked problems with answers are included.
Beginning at a level that requires only
basic algebra, a little trigonometry, and physics, describes the
full range of airborne radar techniques. Technical and ancillary
material is placed in shaded boxes so the reader can skip come
back to later if. No date is noted for the first edition. The
second includes 12 new chapters on such topics as electronically
steered array antennas, low-probability of intercept techniques,
electronic countermeasures and counter countermeasures,
multi-frequency operation and small-signal target detection, and
advanced airborne digital processing architectures. Highly
illustrated with graphics and drawings visualizing technical
concepts and paintings and photographs of radar-bearing aircraft
spanning the history of the field since 1940. Suitable as a text
for a course or self-study.
This highly regarded textbook presents the entire process of
aircraft conceptual design—from requirements definition to
initial sizing, configuration layout, analysis, sizing, and
trade studies—in the same manner seen in industry aircraft
design groups. Interesting and easy to read, the book has more
than 900 pages of design methods, illustrations, tips,
explanations, and equations, and has extensive appendices with
key data essential to design. The book is the required design
text at numerous universities around the world and is a favorite
of practicing design engineers.
RDS-STUDENT aircraft design software is a valuable complement
to the text. RDS-STUDENT incorporates the design and analysis
methods of the book in menu-driven, easy-to-use modules. Like
the book, the program is now metric-friendly and all inputs and
outputs can be interchanged between metric and fps units with
the press of a button. A 69-page user’s manual is provided
with the software, along with the complete data files used for
the Lightweight Supercruise Fighter design example in the back
of the book.
This text provides students who have had statics and
introductory strength of materials with the necessary tools to
perform stress analysis on aerospace structures such as wings,
tails, fuselages, and space frames. It progresses from
introductory continuum mechanics through strength of materials
of thin-walled structures to energy methods, culminating in an
introductory chapter on the powerful finite element method.
A description of the inertial technology used for guidance,
control and navigation, discussing in detail the principles,
operation and design of sensors, gyroscopes and accelerometers,
as well as the advantages and disadvantages of particular
systems. An engineer with long practical experience in the
field, the author elucidates developments such as fibre-optic
gyroscopes, solid-state accelerometers, and the global
positioning system.
Flight research takes up where the other instruments of
aeronautical research-wind tunnels, fluid dynamics, and
mathematical analyses-leave off. No matter how the equations
suggest it ought to fly, only by studying actual flight, often
demanding complicated and dangerous maneuvers, can researchers
discover the limits of flight and the true characteristics of
experimental flight vehicles. The National Advisory Committee
for Aeronautics (1915) and its successor, The National
Aeronautic and Space Act (1958) were created to find out.
Expanding the Envelope is the first book to explore the full
panorama of flight research history, from the earliest attempts
by such nineteenth century practitioners as England's Sir George
Cayley, who tested his kites and gliders by subjecting them to
experimental flight, to the cutting-edge aeronautical research
conducted by the NACA and NASA. NASA historian Michael H. Gorn
explores the vital human aspect of the history of flight
research, including such well-known figures as James H.
Doolittle, Chuck Yeager, and A. Scott Crossfield, as well as the
less heralded engineers, pilots, and scientists who also had the
"Right Stuff." While the individuals in the cockpit
often receive the lion's share of the public's attention,
Expanding the Envelope shows flight research to be a
collaborative engineering activity, one in which the pilot
participates as just one of many team members. Here is more than
a century of flight research, from well before the creation of
NACA to its rapid transformation under NASA. Gorn gives a behind
the scenes look at the development of groundbreaking vehicles
such as the X-1, the D-558, and the X-15, which demonstrated
manned flight at speeds up to Mach 6.7 and as high as the edge
of space.
Airborne
Pulsed Doppler Radar (Artech House Radar Library)
ISBN: 0890068674
G. V. Morris, Linda Harkness Presents the basic principles of
pulse-doppler radar without resorting to a heavily mathematical
treatment. High-, medium-, and low-pulse repetition frequency
(PRF) modes are explained and the advantages and disadvantages
of each are discussed. Also included are an explanation of the
major signal-processing functions of doppler filtering, pulse
compression, tracking, synthetic aperture, selection of medium
PRFs, and resolving range ambiguities and a discussion of how to
predict the performance of a pulse-doppler radar in the presence
of noise and clutter.
UK Reviews, Pricing and Ordering Information.
USA Reviews Pricing and Ordering Information.
Deutschland Reviews Pricing and Ordering Information.
