Anisotropic Fracture Energy of Boron-Doped P-Type Silicon by Microindentation: Influence of Temperature and Crystallographic Orientation

Keyphrases

• Temperature Effect 100%
• Fracture Energy 100%
• Anisotropic Fracture 100%
• Microindentation 100%
• Crystal Orientation 100%
• Boron Doping 100%
• P-type Silicon 100%
• Dislocation 25%
• Room Temperature 25%
• Elevated Temperature 25%
• Temperature Rise 25%
• Valuable Insight 25%
• Operating Temperature 25%
• Increased Temperature 25%
• Thermal Expansion 25%
• Fracture Toughness 25%
• Silicon-based 25%
• Strong Dependence 25%
• Energy Peak 25%
• Interatomic Bonds 25%
• Fracture Properties 25%
• Vickers Indentation 25%
• Multicrystalline Silicon 25%
• Varying Temperature 25%
• P-type 25%
• Boron Dopant 25%
• Undoped Silicon 25%
• Indentation Experiment 25%

Engineering

• Anisotropic 100%
• Microhardness 100%
• Fracture Energy 100%
• Crystallographic Orientation 100%
• Room Temperature 25%
• Elevated Temperature 25%
• Indentation 25%
• Vickers 25%
• Performed Measurement 25%
• Operating Temperature 25%
• Increasing Temperature 25%
• Temperature Rise 25%
• Fracture Strength 25%
• Fracture Behavior 25%
• Atomic Bond 25%
• Fracture Property 25%
• Dopants 25%
• Silicon Single Crystal 25%

Material Science

• Microhardness 100%
• Silicon 100%
• Boron 100%
• Doping (Additives) 25%
• Thermal Expansion 25%
• Single Crystal 25%
• Fracture Toughness 25%
• Vickers-Indentation 25%
• Fracture Behavior 25%
• Fracture Property 25%