Adaptations for Wear Resistance and Damage Resilience: Micromechanics of Spider Cuticular “Tools”

Keyphrases

• Adaptation 100%
• Wear Resistance 100%
• Spiders 100%
• Micromechanics 100%
• Wear Damage 100%
• Resistance-resilience 100%
• Damage Resilience 100%
• Biomaterials 66%
• Zinc 33%
• Stiffness 33%
• Cross-linked 33%
• High Performance 33%
• Load-bearing 33%
• Novel Design 33%
• Finite Element Analysis 33%
• Protein Matrix 33%
• Design Principles 33%
• Manganese 33%
• Microstructural 33%
• Calcium Minerals 33%
• Manganese Rich 33%
• Adaptation Paradigm 33%
• Abrasion Resistance 33%
• Surface Material 33%
• Ca Ion 33%
• Abrasion 33%
• Functional Surface 33%
• Cupiennius Salei 33%
• Metal Ion Cross-linking 33%
• Graded Materials 33%
• Zn-rich 33%
• Performance Functional 33%
• Micromechanical Properties 33%
• Hierarchical Fibers 33%
• Compositional Adaptation 33%
• Zn Content 33%
• Fiber Architecture 33%
• Organic Load 33%
• Elemental Distribution 33%

Engineering

• Wear Resistance 100%
• Micromechanics 100%
• Experimental Result 50%
• Finite Element Method 50%
• Fits and Tolerances 50%
• Functional Performance 50%
• Micromechanical Property 50%
• Abrasion 50%
• Abrasion Resistance 50%

Material Science

• Wear Resistance 100%
• Micromechanics 100%
• Biomaterial 66%
• Manganese 66%
• Finite Element Method 33%
• Calcium Ion 33%
• Functional Surface 33%
• Design Principle 33%