Module #1 Introduction to Fatigue and Fracture Overview of fatigue and fracture, importance in structural design, and course objectives
Module #2 Basic Concepts in Fatigue Definition of fatigue, types of fatigue, and factors affecting fatigue behavior
Module #3 Fatigue Theories and Models Overview of fatigue theories, including Basquins equation, S-N curves, and fatigue life prediction models
Module #4 Fatigue Testing and Data Analysis Methods for conducting fatigue tests, data analysis techniques, and interpretation of results
Module #5 Fatigue Crack Growth and Propagation Mechanisms of crack growth, crack propagation models, and LEFM (Linear Elastic Fracture Mechanics)
Module #6 Fracture Mechanics Fundamentals Introduction to fracture mechanics, types of fracture, and key concepts (K, G, J)
Module #7 Linear Elastic Fracture Mechanics (LEFM) Assumptions and limitations of LEFM, stress intensity factor (K), and fracture toughness (KIC)
Module #8 Elastic-Plastic Fracture Mechanics (EPFM) Introduction to EPFM, J-integral, and cohesive zone models
Module #9 Fatigue Life Prediction Methods Overview of fatigue life prediction methods, including Miners rule, Palmgren-Miners rule, and Woehlers curve
Module #10 Fatigue Analysis of Welded Structures Fatigue analysis of welded joints, weld defects, and effect of weld geometry on fatigue life
Module #11 Fatigue Analysis of Bolted and Riveted Joints Fatigue analysis of bolted and riveted joints, including joint types, loading conditions, and failure modes
Module #12 Fatigue Analysis of Composite Materials Fatigue behavior of composite materials, including delamination, fiber breakage, and matrix cracking
Module #13 Fracture Mechanics of Composite Materials Fracture mechanics of composite materials, including crack growth and propagation models
Module #14 Case Studies:Fatigue Failure in Structures Real-world examples of fatigue failures in structures, including bridges, aircraft, and pipelines
Module #15 Case Studies:Fracture Failure in Structures Real-world examples of fracture failures in structures, including bridges, buildings, and pressure vessels
Module #16 Design Against Fatigue and Fracture Design guidelines and considerations for minimizing fatigue and fracture in structures
Module #17 Material Selection for Fatigue and Fracture Resistance Material properties and selection criteria for fatigue and fracture resistance
Module #18 Inspection and Maintenance for Fatigue and Fracture Inspection methods and maintenance strategies for detecting and mitigating fatigue and fracture
Module #19 Numerical Methods for Fatigue and Fracture Analysis Finite element methods, boundary element methods, and other numerical techniques for fatigue and fracture analysis
Module #20 Experimental Methods for Fatigue and Fracture Testing Experimental techniques for fatigue and fracture testing, including servo-hydraulic testing and digital image correlation
Module #21 Uncertainty and Reliability in Fatigue and Fracture Analysis Uncertainty quantification and reliability analysis in fatigue and fracture analysis
Module #22 Fatigue and Fracture Analysis Software and Tools Overview of commercial software and tools for fatigue and fracture analysis, including ABAQUS, ANSYS, and NASTRAN
Module #23 Fatigue and Fracture Analysis in Industry Industry applications and challenges in fatigue and fracture analysis, including aerospace, automotive, and civil engineering
Module #24 Course Wrap-Up & Conclusion Planning next steps in Fatigue and Fracture Analysis in Structures career
