Flight Theory and Aerodynamics

A Practical Guide for Operational Safety

Joseph R. Badick, Brian A. Johnson

• Publisher: Wiley-Interscience
• Year: 2021
• Print ISBN: 9781119772392
• eBook ISBN: 9781119772415
• Edition: 4
• Topic: Technology & Engineering
• Subtopic: Aeronautic & Astronautic Engineering
• Index: Technology & Engineering

FLIGHT THEORY AND AERODYNAMICS

GET A PILOT'S PERSPECTIVE ON FLIGHT AERODYNAMICS FROM THE MOST UP-TO-DATE EDITION OF A CLASSIC TEXT

The newly revised Fourth Edition of Flight Theory and Aerodynamics delivers a pilot-oriented approach to flight aerodynamics without assuming an engineering background. The book connects the principles of aerodynamics and physics to their practical applications in a flight environment. With content that complies with FAA rules and regulations, readers will learn about atmosphere, altitude, airspeed, lift, drag, applications for jet and propeller aircraft, stability controls, takeoff, landing, and other maneuvers.

The latest edition of Flight Theory and Aerodynamics takes the classic textbook first developed by Charles Dole and James Lewis in a more modern direction and includes learning objectives, real world vignettes, and key idea summaries in each chapter to aid in learning and retention. Readers will also benefit from the accompanying online materials, like a test bank, solutions manual, and FAA regulatory references.

Updated graphics included throughout the book correlate to current government agency standards. The book also includes:

• A thorough introduction to basic concepts in physics and mechanics, aerodynamic terms and definitions, and the primary and secondary flight control systems of flown aircraft
• An exploration of atmosphere, altitude, and airspeed measurement, with an increased focus on practical applications
• Practical discussions of structures, airfoils, and aerodynamics, including flight control systems and their characteristics
• In-depth examinations of jet aircraft fundamentals, including material on aircraft weight, atmospheric conditions, and runway environments
• New step-by-step examples of how to apply math equations to real-world situations

Perfect for students and instructors in aviation programs such as pilot programs, aviation management, and air traffic control, Flight Theory and Aerodynamics will also appeal to professional pilots, dispatchers, mechanics, and aviation managers seeking a one-stop resource explaining the aerodynamics of flight from the pilot's perspective.

1
Introduction to the Flight Environment

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CHAPTER OBJECTIVES

After completing this chapter, you should be able to:

• Define basic units of measurement used in the introduction to aerodynamics in flight and convert from one unit of measurement to another.
• Identify the four forces on an airplane in constant altitude, unaccelerated flight.
• Calculate the mass of an aircraft.
• Define vector addition and apply to an aircraft in a climb.
• Describe Newton’s laws of motion and recognize how they apply to an introduction to aerodynamics.
• Define the purpose of linear motion in relation to constant acceleration, and then calculate aircraft acceleration, takeoff distance, and takeoff time.
• Describe the difference between energy and work and calculate the potential and kinetic energy of an aircraft in flight.
• Calculate the equivalent horsepower of an aircraft from a known thrust and speed.
• Define friction as it applies to an aircraft.

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A basic understanding of the physical laws of nature that affect aircraft in flight and on the ground is a prerequisite for the study of aerodynamics. Modern aircraft have become more sophisticated, and more automated, using advanced materials in their construction requiring pilots to renew their understanding of the natural forces encountered during flight. Understanding how pilots control and counteract these forces better prepares pilots and engineers for the art of flying for harnessing the fundamental physical laws that guide them. Though at times this textbook will provide a quantitative approach to various principles and operating practices with formulas and examples using equations, it is more important that the reader understand WHY a principle of flight theory is discussed and how that subject matter intertwines with other materials presented; thus a qualitative approach is used throughout this textbook.

Perhaps your goal is to be a pilot, who will “slip the surly bonds of earth,” as John Gillespie Magee wrote in his classic poem “High Flight.” Or you may wish to build or maintain aircraft as a skilled technician. Or possibly you wish to serve in another vital role in the aviation industry, such as manager, dispatcher, meteorologist, engineer, teacher, or another capacity. Whichever area you might be considering, this textbook will build on what you already know and will help prepare you for a successful aviation career.

INTRODUCTION

This chapter begins with a review of the basic principles of physics and concludes with a summary of linear motion, mechanical ...

Table of contents

• Cover
• Table of Contents
• Title Page
• Copyright Page
• Preface
• About the Authors
• About the Companion Website
• 1 Introduction to the Flight Environment
• 2 Atmosphere, Altitude, and Airspeed Measurement
• 3 Structures, Airfoils, and Aerodynamic Forces
• 4 Lift
• 5 Drag
• 6 Jet Aircraft Performance
• 7 Propeller Aircraft Performance
• 8 Takeoff Performance
• 9 Landing Performance
• 10 Slow‐Speed Flight
• 11 Maneuvering Performance
• 12 Longitudinal Stability and Control
• 13 Directional and Lateral Stability
• 14 High‐Speed Flight
• 15 Rotary‐Wing Flight Theory
• Answers to Problems
• Bibliography
• Index
• End User License Agreement