Experimental Quantification of Fracture and Crack Growth in a Porous Carbon Fiber Material

Engineering

• Quantification 100%
• Crack Growth 100%
• Fracture 100%
• Porosity 100%
• Macroscale 66%
• Damage Tolerance 66%
• Mechanisms 33%
• Strain Localization 33%
• Mesoscale 33%
• Low Density 33%
• Aerospace Applications 33%
• Low Thermal Conductivity 33%
• Phenolics 33%
• Catastrophic Failure 33%
• Compressive Loading 33%
• Functional Property 33%
• Fracture Behavior 33%
• Mechanical Failure 33%
• Structural Reliability 33%
• Digital Image Correlation 33%
• Impregnated Carbon 33%
• Service Condition 33%
• Tensile Test 33%
• Reliability 33%
• Preferred Orientation 33%
• Model 33%
• Accuracy 33%
• Computer Simulation 33%
• Mechanical Property 33%
• Substrates 33%
• Fiber 33%

Material Science

• Carbon Fiber 100%
• Porous Carbon 100%
• Crack Growth 100%
• Materials 100%
• Damage Tolerance 50%
• Fiber 25%
• Mechanical Property 25%
• Porous Material 25%
• Fracture Behavior 25%
• Density 25%
• Thermal Conductivity 25%
• Toughness 25%
• Mechanical Failure 25%
• Strength of Materials 25%