Chapter One Transmission Gearboxes and Drive Live
Acknowledgment to Sponsor and Introduction
A. Manual-Shift Gearbox Design
(Speed Ratio Optimization, Configurational Constraints, Load Capacity of Gear Teeth, Bearing Load Calculation)
B. Synchro Mesh Mechanisms
(Categories, Torque Calculation, Heat-Rating, Failure Modes)
C. Hydrokinetic Automatic Gearboxes
(Fluid-Coupling/Torque-Converter Comparison, Performance Evaluation and Blade Design, Converter and Gearbox in Combination/Epicyclic Gear-Train Analysis)
D. Drive-Line Main Assemblies
Section One: Diaphragm-Spring Clutch Design
Section Two: Clutch Engagement Characteristics
Section Three: Design Calculations for Drive Axles
Section Four: Final Drive Analysis
Section Five: Final Drive Bearings
E. Drive-Line Losses: Drag and Vibration
Section One: Tire Rolling Resistance
Section Two : Drive-Line Vibration
Section Three: Brake design
Section Four: Road Wheel Design
Chapter Two Vehicle Suspensions: Handling and Ride
Acknowledgment to Sponsor and Introduction
A. Steady-State Turns
Section One: Analytical Methods for Steady-State Handling
Section Two: Case Study: Analysis of a Current Production Car
B. The Transient Stage in Handling
Section One: The Traditional Approach
Section Two: Present-Day Analysis of Vehicle Transient Responses
Section Three: Suspension Geometry and Vehicle Handling
C. Behavior of the Steering System
Section One: Forces in Steering Linkages
Section Two: Steering Oscillations
D. Ride Parameters
Section One: Ergonomic Distinction Between Ride and Handling
Section Two: The Traditional Approach and Ride Fundamentals
Section Three: Recent Refinements in Evaluating Ride Parameters
Appendix 1: Determining Ride Parameters by a Vector Method
Appendix 2: Chassis-Frame Beaming Vibration
Section Four: Ride Evaluation in the Design Office
E. Spring-Element Design and Installation
Section One: Laminated Suspension Springs
Section Two: Use of Rubber as a Suspension Medium
Section Three: Air Springing
Section Four: Oleo-Pneumatics
Chapter Three the Automotive Structure
Acknowledgment to Sponsor
Introduction: The Economic Case for Light Alloy Construction and Consideration of Sandwich Construction
A. Fundamentals of Structural Theory in Car Body Design
Section One: Virtual Work-The Unit Load Theorem Applied to Pin-Jointed Frames and Continuum Structures
Section Two: Bending Theory—Equation of Flexure, Moment Distribution, Instability and Plastic Collapse
Section Three: Structural Idealization-Simplification of Complete Body Shells for Analysis and Shear Flow Distribution in Box Beams
Section Four: Recent Trends Analysis in Car Body
Section Five: Computerized Body Design
Section Six: Matrix Methods for Structural Vibration Analysis
B. Commercial Vehicle Body and Chassis Analysis
Section One: Analysis of Chassis Torsional Stiffness
Section Two: The Van Body as an Idealized Box Beam
Section Three: The Argyris Force Method of Structural Analysis Explained
Section Four: Idealization of the Structure of a Semi-Trailer Van
Section Five: Solution by Digital Computer of a Semi-Trailer Box-Van Analysis
Appendix: Determining Degree of Structural Redundancy