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Flight Dynamics: Second Edition

Flight Dynamics: Second Edition (Hardcover)

F. Robert (지은이)
Princeton University Press
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Flight Dynamics: Second Edition
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· 제목 : Flight Dynamics: Second Edition (Hardcover) 
· 분류 : 외국도서 > 과학/수학/생태 > 과학 > 역학 > 공기역학
· ISBN : 9780691220253
· 쪽수 : 912쪽
· 출판일 : 2022-11-01

목차

  • Preface to the Second Edition
  • Chapter 1 Introduction
    • 1.1 ELEMENTS OF THE AIRPLANE
      • Airframe Components
      • Propulsion Systems
    • 1.2 REPRESENTATIVE AIRCRAFT
      • Light General Aviation Aircraft
      • Uninhabited Air Vehicle
      • Variable-Stability Research Aircraft
      • Sailplane
      • Business Jet Aircraft
      • Turboprop Commuter Aircraft
      • Small Jet Transport Aircraft
      • Medium Jet Transport Aircraft
      • Large Jet Transport Aircraft
      • Fighter/Attack Aircraft
      • Jet Trainer Aircraft
      • Hybrid Wing Body Aircraft
      • Supersonic and Hypersonic Transport Aircraft
      • Lifting Reentry Spacecraft
    • 1.3 THE MECHANICS OF FLIGHT
      • Text Box: Scalars, Vectors, and Matrices
      • Text Box: Derivatives and Integrals of Time-Dependent Variables
    • 1.4 COURSES IN FLIGHT DYNAMICS
    • REFERENCES FOR CHAPTER 1
  • Chapter 2 Exploring the Flight Envelope
  • Text Box: Newton’s Laws of Motion
    • 2.1 THE EARTH’S ATMOSPHERE
      • Pressure, Density, and the Speed of Sound
      • Viscosity, Humidity, and Rain
      • Wind Fields and Atmospheric Turbulence
    • 2.2 KINEMATIC EQUATIONS
      • Translational Position and Velocity
      • Angular Orientation and Rate
      • Text Box: Matrix Inverse
      • Airflow Angles
      • Summary of Axis Systems and Transformations
    • 2.3 FORCES AND MOMENTS
      • Alternative Axis Systems
      • Aerodynamic Forces and Moments
    • 2.4 STATIC AERODYNAMIC COEFFICIENTS
      • Lift
      • Drag
      • Pitching Moment
      • Side Force
      • Yawing Moment
      • Rolling Moment
      • Ground Effect
    • 2.5 AIRCRAFT PROPULSION
      • Power and Thrust
      • Propulsion Systems
      • Propellers and Ducted Fans
      • Reciprocating Engines
      • Turboprop, Turbofan, and Turbojet Engines
      • Ramjet and Scramjet Engines
      • Electric Powerplants
      • General Thrust Models
    • 2.6 FLIGHT PERFORMANCE
      • Straight-and-Level Flight
      • Steady Flight Envelope
      • Cruising Range
      • Gliding Flight
      • Climbing Flight
      • Maneuvering Envelope
      • Steady Turning Flight
      • Text Box: Performance of the North American P-51D Mustang
    • REFERENCES FOR CHAPTER 2
  • Chapter 3 The Dynamics of Aircraft Motion
    • 3.1 MOMENTUM AND ENERGY
      • Translational Momentum, Work, Energy, and Power
      • Energy Height and Specific Excess Power
      • Energy-Changing Maneuvers
      • Angular Momentum and Energy
    • 3.2 DYNAMIC EQUATIONS FOR A FLAT EARTH
      • Rigid-Body Dynamic Equations
      • Scalar Equations for a Symmetric Aircraft
      • Avoiding the Euler Angle Propagation Singularity
        • Direction Cosine Matrix
        • Quaternion
      • Alternative Reference Frames
        • Air-Mass-Relative Reference Frame
        • Alternative Body Frame
        • Principal Axis Frame
      • Text Box: Eigenvalues and Eigenvectors
        • Stability Axes
      • Acceleration Sensed at an Arbitrary Point
    • 3.3 DYNAMIC EQUATIONS FOR A ROUND, ROTATING EARTH
      • Geometry and Gravity Field of the Earth
      • Rigid-Body Dynamic Equations for a Spherical Earth
    • 3.4 AERODYNAMIC EFFECTS OF ROTATIONAL AND UNSTEADY MOTION
      • Pitch-Rate Effects
      • Angle-of-Attack-Rate Effects
      • Yaw-Rate Effects
      • Roll-Rate Effects
      • Effects of Wind Shear and Wake Vortices
    • 3.5 AERODYNAMIC EFFECTS OF CONTROL
      • Trailing-Edge Flaps
      • Wing-Mounted Control Surfaces
      • Elevators, Stabilators, Elevons, and Canards
      • Rudder
      • Ailerons
      • Other Control Devices
      • Isolated Control Surfaces at High Deflection Angle and Angle of Attack
    • 3.6 SOLUTION OF NONLINEAR DIFFERENTIAL EQUATIONS
      • Numerical Algorithms for Integration
      • Equations of Motion
      • Continuous Representation of Tabulated Data
        • Scalar Polynomials
        • Multivariate Polynomials
        • Computational Neural Networks
      • Trimmed Solution of the Equations of Motion
    • REFERENCES FOR CHAPTER 3
  • Chapter 4 Methods of Analysis and Design
    • 4.1 LOCAL LINEARIZATION OF DIFFERENTIAL EQUATIONS
      • Stability-and-Control Derivatives
      • Incorporating Unsteady Aerodynamic Effects
      • Symmetric Aircraft in Wings-Level Flight
      • Longitudinal Equations of Motion
      • Lateral-Directional Equations of Motion
      • Stability-Axis Equations of Motion
    • 4.2 SOLUTION OF LINEAR DIFFERENTIAL EQUATIONS
      • Numerical Integration and State Transition
      • Text Box: Superposition of Linear, Time-Invariant Dynamic Responses
      • Static and Quasistatic Equilibrium Response to Inputs
      • Initial Response to Control Inputs
      • Controllability and Observability of Motions
      • Truncation and Residualization
    • 4.3 STABILITY AND MODES OF MOTION
      • Stability of Transient Response
      • Fourier and Laplace Transforms
      • Modes of Aircraft Motion
      • Phase Plane
    • 4.4 FREQUENCY-DOMAIN ANALYSIS
      • Transfer Functions and Frequency Response
      • Bode Plot
      • Text Box: Bode Plot of an Isolated Zero
      • Nyquist Plot and Nichols Chart
      • Root Locus
    • 4.5 DEALING WITH UNCERTAINTY
      • Random Variables and Processes
      • Text Box: Stationary and Nonstationary Probability Density Functions
      • Dynamic Response to Random Inputs and Initial Conditions
      • Effects of System Parameter Variations
      • System Survey
      • Monte Carlo Evaluation
      • Stochastic Root Locus
    • 4.6 LINEAR AEROELASTICITY
      • Stress, Strain, and Material Properties
      • Monocoque and Semi-Monocoque Structures
      • Force and Moments on a Simple Beam
      • Static Deflection of a Simple Beam under Load
      • Vibrations of a Simple Beam
        • Bending Vibrations of a Uniform Beam
        • Torsional Vibrations of a Uniform Beam
      • Coupled Vibrations of an Elastically Restrained Rigid Airfoil
      • Vibrations of a Complex Structure
      • The Four-Block Model
      • Fuel Slosh
    • 4.7 PILOTING ACTIONS AND AIRCRAFT FLYING QUALITIES
      • Modeling the Pilot
      • Flying Qualities Criteria
      • Levels of Autonomy
    • REFERENCES FOR CHAPTER 4
  • Chapter 5 Longitudinal Motions
    • 5.1 LONGITUDINAL EQUATIONS OF MOTION
    • 5.2 REDUCED-ORDER MODELS OF LONG-PERIOD MODES
      • Second-Order Phugoid-Mode Approximation
        • Equilibrium Response to Control and Disturbance
        • Controllability and Observability
        • Eigenvalues, Natural Frequency, and Damping Ratio
        • Eigenvectors
        • Root Locus Analysis of Parameter Variations
        • Frequency Response
        • Root Locus Analysis of Feedback Control
        • Time Response
      • Effects of Compressibility
      • Effects of Altitude Variation
        • Air Density, Sound Speed, and Gravity Variations
        • Ground Effect
      • Effects of Wind Shear
    • 5.3 REDUCED-ORDER MODEL OF THE SHORT-PERIOD MODE
      • Second-Order Approximation
        • Equilibrium Response to Control and Disturbance
        • Controllability and Observability
        • Eigenvalues, Natural Frequency, and Damping Ratio
        • Eigenvectors
        • Root Locus Analysis of Parameter Variations
        • Frequency Response
        • Root Locus Analysis of Feedback Control
        • Time Response
      • Effects of Compressibility and High Angle of Attack
    • 5.4 COUPLED PHUGOID/SHORT-PERIOD DYNAMICS
      • Residualized Phugoid Mode
      • Fourth-Order Model
        • Equilibrium Response to Control
        • Eigenvalues and Root Locus Analysis of Parameter Variations
        • Transfer Functions and Frequency Response
        • Response to Disturbances
        • Root Locus Analysis of Feedback Control
        • Time Response
      • Longitudinal Flying Qualities
    • 5.5 CONTROL MECHANISMS, STICK-FREE STABILITY, AND TRIM
      • Elevator Control Mechanism
      • Short-Period/Control-Mechanism Coupling
      • Control Force for Trimmed Flight
      • Elevator Angle and Stick Force per g
      • “Tail-Wags-Dog” Effect
    • 5.6 LONGITUDINAL AEROELASTIC EFFECTS
      • Truncated and Residualized Aeroelastic Models
      • Coupling of the Short Period with a Single Elastic Mode
        • Equilibrium Response to Control
        • Eigenvalues and Root Locus Evaluation of Parameter Variations
        • Control and Disturbance Transfer Functions
        • Frequency Response and the Effects of Feedback Control
        • Effects of Elasticity on Time Response
    • REFERENCES FOR CHAPTER 5
  • Chapter 6 Lateral-Directional Motions
    • 6.1 LATERAL-DIRECTIONAL EQUATIONS OF MOTION
    • 6.2 REDUCED-ORDER MODEL OF THE DUTCH ROLL MODE
      • Equilbrium Response to Control and Disturbance
      • Controllability and Observability
      • Eigenvalues, Natrual Frequency, and Damping Ratio
      • Eigenvectors
      • Root Locus Analysis of Parameter Variations
      • Frequency Response
      • Root Locus Analysis of Feedback Control
      • Time Response
    • 6.3 REDUCED-ORDER MODEL OF ROLL AND SPIRAL MODES
      • Equilbrium Response to Control and Disturbance
      • Controllability and Observability
      • Eigenvalues, Natural Frequency, and Damping Ratio
      • Eigenvectors
      • Root Locus Analysis of Parameter Variations
      • Frequency Response
      • Root Locus Analysis of Feedback Control
      • Time Response
    • 6.4 COUPLED LATERAL-DIRECTIONAL DYNAMICS
      • A Truncated Dutch Roll/Roll Model
      • Residualized Lateral-Directional Models
        • Residualized Dutch Roll Mode
        • Residualized Dutch Roll and Spiral Modes
        • Residualized Roll-Spiral Modes
      • Fourth-Order Model
        • Equilibrium Response to Control
        • Eigenvalues and Root Locus Analysis of Parameter Variations
        • Eigenvectors
        • Transfer Functions and Frequency Response
        • Response to Disturbances
        • Root Locus Analysis of Feedback Control
        • Time Response
      • Lateral-Directional Flying Qualities
        • Flying Qualities Criteria
    • 6.5 CONTROL MECHANISMS, NONLINEARITY, AND TIME DELAY
      • Rudder Control Mechanism
      • Dutch Roll/Rudder Coupling
      • Quasilinear Representation of Nonlinearity
      • Quasilinear Root Locus Analysis
      • Roll-Spiral/Aileron Coupling
      • Spoiler Nonlinearity and Time Delay
    • 6.6 LATERAL-DIRECTIONAL AEROELASTIC EFFECTS
      • Equilibrium Response to Control
      • Eigenvalues and Root Locus Analysis of Parameter Variations
      • Response to Initial Conditions and Step Control Inputs
        • Directional Fuselage Bending Forced by Sideslip Perturbations
        • Asymmetric Wing Twisting Forced by Sideslip Perturbations
        • Asymmetric Wing Twisting Forced by Roll-Rate Perturbations
    • REFERENCES FOR CHAPTER 6
  • Chapter 7 Coupled Longitudinal and Lateral-Directional Motions
    • 7.1 SMALL-AMPLITUDE MOTIONS
      • Effects of Rotating Machinery
      • Asymmetric Inertial and Aerodynamic Properties
      • Asymmetric Flight Condition and Constant Angular Rate
        • Nonzero Sideslip Angle
        • Nonzero Roll Angle
        • Nonzero Angular Rate
      • Coupling Controls
    • 7.2 INERTIAL COUPLING OF PITCH AND YAW MOTIONS
      • Fifth-Order Model of Coupled Dynamics
      • Truncated and Residualized Fourth-Order Models
      • Response to Controls during Steady Rolling
    • 7.3 MULTIPLE EQUILIBRIUM POINTS
      • Second-Order Examples of Multiple Equilibria
        • Cubic-Spring Effect
        • Cubic-Damper Effect
      • Effects of Cross-Coupling and Control on Rolling Equilibrium
        • Description of the Phenomenon
        • Characterization of Solutions
        • Bifurcation Analysis
    • 7.4 FLIGHT AT HIGH ANGLE OF ATTACK
      • High-Angle-of-Attack Aerodynamics and Control Effects
      • Fully Developed Spins
      • Simulated Motions of a Business Jet Aircraft
      • Stability of High-Angle-of-Attack Maneuvers
      • Pilot-Aircraft Interactions at High Angle of Attack
    • REFERENCES FOR CHAPTER 7
  • Chapter 8 Flight Control Design
    • The Evolution of Flight Control
    • Flight Control Modes and Redundancy
    • Overview
    • 8.1 OPEN- AND CLOSED-LOOP COMMAND RESPONSE
      • Equilibrium Open-Loop Response
      • Equilibrium Closed-Loop Response
      • Text Box: Digital Flight Control
    • 8.2 LINEAR-QUADRATIC OPTIMAL CONTROL
      • Linear-Quadratic Regulator
      • Text Box: Criteria for Guaranteed Stability of the Linear-Quadratic Regulator
        • LQ Regulators for a Longitudinal Dynamic Model
        • LQ Regulators for a Lateral-Directional Dynamic Model
        • Pre-Filtered Command Inputs to the LQ Regulator
        • Transient Commands to the LQ Regulator
      • Output Weighting and Implicit Model Following
      • Explicit Model Following
      • Integral Compensation
        • Proportional-Integral LQ Regulator
        • Proportional-Filter LQ Regulator
        • Washout Filter
      • Text Box: Sampled-Data LQ Regulator
    • 8.3 OPTIMAL STATE ESTIMATION
      • Kalman-Bucy Filter
      • Text Box: Discrete-Time Kalman Filter
      • Extended Kalman Filter
      • Parameter Estimation
      • Measurement Bias and Covariance Estimation
      • Disturbance Bias and Covariance Estimation
    • 8.4 LINEAR-QUADRATIC-GAUSSIAN OPTIMAL CONTROL
      • LQG Regulator
      • Dealing with Aeroelasticity
      • Text Box: Sampled-Data LQG Control
    • 8.5 CONTROL SYSTEM ROBUSTNESS
      • Modal Properties of the LQ Regulator
      • Stability Margins and Robustness of LQ Regulators
      • Stochastic Robustness Analysis and Design
      • Stability Margins and Robustness of LQG Regulators
    • 8.6 GAIN-SCHEDULED AND NEURAL NETWORK CONTROL
      • Gain Scheduling
      • Neural Network Control
    • 8.7 NONLINEAR-INVERSE-DYNAMIC CONTROL
      • Lie Derivatives
      • Inverting a Linear, Time-Invariant System
      • Relative Degree of Differentiation
    • 8.8 ADAPTIVE AND FAILURE-TOLERANT CONTROL
      • Machine Learning and Adaptive Critic Control
        • Action Network
        • Critic Network
      • Parameter-Adaptive LQG Control
      • Multiple-Model Parameter Estimation
      • Failure Detection, Identification, and Reconfiguration
        • Failure Detection and Diagnosis
        • Failure Identification
      • Text Box: Entropy and Mutual Information
        • Control Law Reconfiguration
    • REFERENCES FOR CHAPTER 8
  • Chapter 9 Epilogue
  • Appendix A Constants, Units, and Conversion Factors
    • REFERENCE FOR APPENDIX A
  • Appendix B Nonlinear Six-Degree-of-Freedom Aircraft Flight Simulation
    • B.1 MAIN PROGRAM FOR ANALYSIS AND SIMULATION (FLIGHT.M)
    • B.2 MATHEMATICAL MODEL OF THE AIRCRAFT (AEROMODEL.M)
      • B.2.1 Low-Angle-of-Attack, Mach-Dependent Model (AeroModelMach.m)
      • B.2.2 High-Angle-of-Attack, Low-Subsonic Model (AeroModelAlpha.m)
      • B.2.3 User-Defined Model (AeroModelUser.m)
      • B.2.4 Preliminary Modeling for Dynamic Analysis (ModelBuild.m)
    • B.3 SUPPORTING FUNCTIONS
      • B.3.1 Equations of Motion (EoM.m, EoMQ.m)
      • B.3.2 Cost Function for Aerodynamic Trim (TrimCost.m)
      • B.3.3 Rotation Matrices (DCM.m and RMQ.m)
      • B.3.4 Linear System Matrices (LinModel.m)
      • B.3.5 Wind Field (WindField.m)
      • B.3.6 Atmospheric State (Atmos.m)
    • REFERENCES FOR APPENDIX B
  • Appendix C Linear System Analysis and Control System Design
    • C.1 MAIN PROGRAM FOR LINEAR ANALYSIS AND SIMULATION (SURVEY.M)
    • C.2 ANALYSES AND FUNCTIONS FOR SYSTEM ANALYSIS
      • C.2.1 Reduced-Order Models (LonLatDir.m)
      • C.2.2 Natural Frequency (NatFreq.m)
      • C.2.3 Eigenvalues and Eigenvectors (StabMode.m)
      • C.2.4 Initial-Condition Response
      • C.2.5 Response to Control Step Input
      • C.2.6 Response to Control Time Profile
      • C.2.7 Equilibrium Response to Constant Control Perturbation
      • C.2.8 Controllability and Observability
      • C.2.9 Transfer Functions
      • C.2.10 Human-Pilot Transfer Function
      • C.2.11 Stability Margins
      • C.2.12 Bode Plots
      • C.2.13 Nyquist Plots
      • C.2.14 Nichols Charts
      • C.2.15 Root Locus Plots
    • C.3 MAIN PROGRAM FOR LINEAR-QUADRATIC CONTROL LAW DESIGN (LQDESIGN.M)
    • C.4 ANALYSES AND FUNCTIONS FOR CONTROL LAW DESIGN
      • C.4.1 Command and Control Effector Selection (LatDirOL.m and LonOL.m)
      • C.4.2 Linear-Quadratic Control Law (LQControl.m)
      • C.4.3 Time Response Plots (LQPlot.m)
      • C.4.4 Control System Robustness (Robust.m)
  • Appendix D Paper Airplane Simulation
  • Appendix E Exercises
  • Index
  • About the Author

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