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Engineering
Aerospace Engineering
Aerospace Materials
1. Introduction to Aerospace Materials
2. Metallic Materials in Aerospace
3. High-Temperature Materials
4. Composite Materials
5. Material Behavior and Failure Mechanisms
6. Material Selection, Processing, and Certification
7. Advanced and Emerging Aerospace Materials
Composite Materials
Fundamentals of Composites
Definition and Basic Concepts
Composite Classification
By Matrix Type
By Reinforcement Type
By Structure
Advantages of Composites
High Specific Strength
High Specific Stiffness
Tailorable Properties
Corrosion Resistance
Design Flexibility
Limitations of Composites
Cost
Processing Complexity
Repair Challenges
Environmental Sensitivity
Anisotropic Properties
Reinforcing Fibers
Carbon Fibers
PAN-Based Carbon Fibers
Pitch-Based Carbon Fibers
Standard Modulus Fibers
Intermediate Modulus Fibers
High Modulus Fibers
Ultra-High Modulus Fibers
Properties and Applications
Glass Fibers
E-Glass
S-Glass
Properties and Applications
Aramid Fibers
Kevlar 29
Kevlar 49
Kevlar 149
Properties and Applications
Boron Fibers
Manufacturing Process
Properties and Applications
Ceramic Fibers
Silicon Carbide Fibers
Alumina Fibers
Properties and Applications
Natural Fibers
Flax
Hemp
Properties and Applications
Matrix Materials
Polymer Matrix Composites
Thermoset Matrices
Epoxy Resins
Phenolic Resins
Polyimide Resins
Bismaleimide Resins
Thermoplastic Matrices
PEEK
PEI
PPS
PEKK
Properties and Selection Criteria
Metal Matrix Composites
Aluminum Matrices
Titanium Matrices
Magnesium Matrices
Properties and Applications
Ceramic Matrix Composites
Silicon Carbide Matrices
Alumina Matrices
Silicon Nitride Matrices
Properties and Applications
Mechanics of Composite Materials
Micromechanics
Rule of Mixtures
Fiber-Matrix Interface
Load Transfer Mechanisms
Macromechanics
Anisotropic Material Behavior
Orthotropic Properties
Lamina Properties
Laminate Theory
Classical Laminate Theory
ABD Matrix
Coupling Effects
Failure Criteria
Maximum Stress Criterion
Maximum Strain Criterion
Tsai-Hill Criterion
Tsai-Wu Criterion
Hashin Criterion
Ply Orientation Effects
0-Degree Plies
90-Degree Plies
45-Degree Plies
Quasi-Isotropic Laminates
Stacking Sequence Effects
Symmetric Laminates
Balanced Laminates
Coupling Effects
Interlaminar Stresses
Free Edge Effects
Delamination Initiation
Mode I, II, and III Fracture
Types of Composite Structures
Laminates
Unidirectional Laminates
Cross-Ply Laminates
Angle-Ply Laminates
Quasi-Isotropic Laminates
Fabric Laminates
Sandwich Structures
Core Materials
Honeycomb Cores
Aluminum Honeycomb
Nomex Honeycomb
Carbon Honeycomb
Foam Cores
PVC Foam
PET Foam
PMI Foam
Balsa Wood Cores
Face Sheets
Composite Face Sheets
Metallic Face Sheets
Sandwich Theory
Failure Modes
Applications and Benefits
Three-Dimensional Structures
Braided Composites
Woven Composites
Stitched Composites
Manufacturing and Processing
Hand Lay-up
Process Description
Advantages and Limitations
Prepreg Processing
Prepreg Materials
Storage and Handling
Lay-up Procedures
Automated Manufacturing
Automated Fiber Placement
Automated Tape Laying
Process Parameters
Quality Control
Liquid Molding Processes
Resin Transfer Molding
Vacuum Assisted Resin Transfer Molding
Resin Film Infusion
Curing Processes
Autoclave Curing
Oven Curing
Out-of-Autoclave Processing
Cure Monitoring
Specialized Processes
Filament Winding
Pultrusion
Compression Molding
Quality Control and Inspection
Process Monitoring
Non-Destructive Testing
Statistical Process Control
Applications of Composites in Aerospace
Primary Structures
Wing Structures
Wing Box
Wing Skins
Spars and Ribs
Fuselage Structures
Fuselage Sections
Pressure Bulkheads
Frames
Empennage
Vertical Stabilizer
Horizontal Stabilizer
Secondary Structures
Fairings and Radomes
Control Surfaces
Doors and Access Panels
Engine Nacelles
Interior Components
Cabin Panels
Overhead Bins
Seat Structures
Galley Components
Rotorcraft Applications
Rotor Blades
Hub Components
Fuselage Structures
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5. Material Behavior and Failure Mechanisms