A physics based multi-scale framework for surface evolution in abrasive waterjet textured additively manufactured continuous carbon fiber thermoplastic composites

Keyphrases

• Abrasive Water Jet 100%
• Abrasive Water Jet Machining 33%
• Additive Manufacturing 66%
• Additively Manufactured 100%
• Adhesive Joints 33%
• Arithmetic Mean 33%
• Brittle Material Removal 33%
• Carbon Fiber Reinforced Thermoplastics (CFRTP) 100%
• Circular Manufacturing 33%
• Complex Geometry 33%
• Composite Repair 66%
• Composite Structures 33%
• Continuous Carbon Fiber 100%
• Crater Volume 33%
• Ductile Material Removal 33%
• Effective Energy 33%
• Energy Input 33%
• Environmentally Friendly Method 33%
• Erosion Mechanism 33%
• Exposure Time 33%
• Fiber Orientation 33%
• Governing Mechanisms 33%
• Impact Angle 33%
• Impact Energy 33%
• Impact Matrix 33%
• Linkage Mechanism 33%
• Local Erosion 33%
• Manufacturing Framework 33%
• Manufacturing Practices 33%
• Material Removal Mechanism 33%
• Material Response 33%
• Matrix Plasticity 33%
• Mean Height 33%
• Meso 33%
• Multi-scale Framework 100%
• Nonlinear Relationship 33%
• Parent Structure 33%
• Physics-based 100%
• Predictive Control 33%
• Process Physics 33%
• Repair Application 33%
• Repair Patch 33%
• Response Characteristics 33%
• Service Life 33%
• Strong Potential 33%
• Surface Characteristics 33%
• Surface Evolution 100%
• Surface Integrity 33%
• Surface Material 33%
• Surface Metrics 66%
• Surface Preparation 33%
• Surface Quality 33%
• Surface Topography 33%
• Thermoplastic Composites 33%
• Traverse Speed 66%
• Water Jet Pressure 66%
• Work Support 33%

Material Science

• Abrasive Waterjet Machining 33%
• Carbon Fiber 100%
• Ductile Material 33%
• Fiber Reinforced Material 33%
• Materials Physics 33%
• Surface Property 66%
• Surface Topography 33%
• Thermoplastics 100%
• Three Dimensional Printing 66%