Preface
Part I. PART ONE ENGINEERING PRINCIPLES
1. CHƯƠNG 1: Columns with Other End Constraints
1.1. Some Background Philosophy
1.2. The Product Design Team
1.3. Function and Form; Aesthetics and Ergonomics
1.4. Concepts and Definition of Mechanical Design
1.5. Design Safety Factor
1.6. Stages of Design
1.7. Steps in the Design Process
1.8. Fail Safe and Safe Life Design Concepts
1.9. The Virtues of simplicity
1.10. Lessons Learned Strategy
1.11. Machine Elements, Subassemblies, and the Whole Machine
1.12. The Role of Codes and Standards in the Design Process
1.13. Ethics in Engineering Design
1.14. Units
2. CHƯƠNG 2: The Failure Prevention Perspective
2.1. Role of Failure Prevention Analysis in Mechanical Design
2.3. Modes of Mechanical Failure
2.4. Elastic Deformation, Yielding, and Ductile Rupture
2.5. Elastic Instability and Buckling
2.6. Shock and Impact
2.7. Creep and Stress Rupture
2.8. Wear and Corrosion
2.9. Fretting, Fretting Fatigue, and Fretting Wear
2.10. Failure Data and the Design Task
2.11. Failure Assessment and Retrospective Design
2.12. The Role of Safety Factors; Reliability Concepts
2.13. Selection and Use of a Design Safety Factor
2.14. Determination of Existing Safety Factors in a Completed Design: A Conceptual Contrast
2.15. Reliability: Concepts, Definitions, and Data
2.16. The Dilemma of Reliability Specification versus Design Safety Factor
3. CHƯƠNG 3: Materials Selection
3.1. Steps in Materials Selection
3.2. Analyzing Requirements of the Application
3.4. Matching Responsive Materials to Application Requirements; Rank Ordered Data Table Method
3.5. Matching Responsive Materials to Application Requirements; Ashby chart Method
4. CHƯƠNG 4: Response of Machine Elements to Loads and Environments; Stress, Strain, and Energy Parameters
4.1. Loads and Geometry
4.2. Equilibrium Concepts and Free-Body Diagrams
4.4. Stress Analysis; Common Stress Patterns for Common Types of Loading
4.5. Deflection Analysis
4.6. Stresses Caused by Curved Surfaces in Contact
4.7. Load Sharing in Redundant Assemblies and Structures
4.8. Preloading Concepts
4.9. Residual Stresses
4.10. Environmental Effects
5. CHƯƠNG 5: Theories
5.2. Multiaxial States of Stress and Strain
5.3. Stress Concentration
5.4. Combined Stress Theories of Failure
5.5. Brittle Fracture and Crack Propagation; Linear Elastic Fracture Mechanics
5.6. Fluctuating Loads, Cumulative Damage, and Fatigue Life
5.7. Multiaxial States of Cyclic Stress and Multiaxial Fatigue Failure Theories
6. CHƯƠNG 6: Geometry Determination
6.1. The Contrast in Objectives Between Analysis and Design
6.2. Basic Principles and Guidelines for Creating Shape and Size
6.3. Critical Sections and Critical Points
6.4. Transforming Combined Stress Failure Theories into Combined Stress Design Equations
6.5. Simplifying Assumptions: The Need and the Risk
6.6. Iteration Revisited
6.7. Fits, Tolerances, and Finishes
7. CHƯƠNG 7: Concurrent Engineering and Design-for-X
7.1. Concurrent Engineering
7.2. Design for Function, Performance, and Reliability
7.3. Selection of the Manufacturing Process
7.4. Design for Manufacturing (DFM)
7.5. Design for Assembly (DFA)
7.6. Design for Critical Point Accessibility, Inspectability, Disassembly, Maintenance, and Recycling
Part II. PART TWO DESIGN APPLICATIONS
8. CHƯƠNG 8: Power Transmission Shafting; Couplings, Keys, and Splines
8.1. Uses and Characteristics of shafting
8.2. Potential Failure Modes
8.4. Design Equations–Strength Based
8.5. Design Equations–Deflection Based
8.6. Shaft Vibration and Critical Speed
8.7. Summary of Suggested Shaft Design Procedure; General Guidelines for Shaft Design
8.8. Couplings, Keys, and Splines
9. CHƯƠNG 9: Pressurized Cylinders; Interference Fits
9.1. Uses and Characteristics of Pressurized Cylinders
9.2. Interference Fit Applications
9.3. Potential Failure Modes
9.4. Materials for Pressure Vessels
9.5. Principles from Elasticity Theory
9.6. Thin-Walled Cylinders
9.7. Thick-Walled Cylinders
9.8. Interference Fits: Pressure and Stress
9.9. Design for Proper Interference
10. CHƯƠNG 10: Plain Bearings and Lubrication
10.1. Types of Bearings
10.2. Uses and Characteristics of Plain Bearings
10.3. Potential Failure Modes
10.4. Plain Bearing Materials
10.5. Lubrication Concepts
10.6. Boundary-Lubricated Bearing Design
10.7. Hydrodynamic Bearing Design
