Mechanical and impact properties of carbon-nanotube-reinforced amorphous silicon carbide composites via atomistic simulation studies

Physics & Astronomy

• silicon carbides 70%
• amorphous silicon 67%
• carbon nanotubes 63%
• mechanical properties 48%
• composite materials 44%
• penetration 34%
• simulation 27%
• armor 27%
• diamonds 25%
• impact velocity 24%
• projectiles 19%
• shock waves 18%
• alignment 16%
• shock 16%
• damage 14%
• thermal protection 14%
• ceramic matrix composites 14%
• shock wave propagation 14%
• hypersonics 12%
• abrasives 12%
• tiles 12%
• stems 11%
• wave fronts 11%
• ballistics 10%
• shielding 9%
• energy transfer 8%
• elastic properties 7%
• molecular dynamics 7%
• scaling 7%
• nanoparticles 7%
• ceramics 7%
• radii 6%
• propagation 6%
• electronics 5%

Engineering & Materials Science

• Amorphous silicon 100%
• Silicon carbide 78%
• Carbon nanotubes 77%
• Mechanical properties 47%
• Composite materials 42%
• Shock waves 41%
• Diamonds 36%
• Armor 29%
• Projectiles 27%
• Elastic constants 16%
• Ceramic matrix composites 15%
• Energy transfer 14%
• Hypersonic aerodynamics 13%
• Molecular dynamics 13%
• Tile 13%
• Ballistics 13%
• Wave propagation 12%
• Shielding 12%
• Abrasives 12%
• Nanoparticles 12%
• Hot Temperature 11%
• Computer simulation 6%
• Temperature 4%

Chemical Compounds

• Amorphous Silicon 99%
• Atomistic Simulation 94%
• Silicon Carbide 81%
• Composite Material 36%
• Diamond 34%
• Shock Wave 34%
• Velocity 30%
• Hypersonic Velocity 24%
• Elasticity Constant 16%
• Abrasive 14%
• Nanoparticle 12%
• Energy Transfer 10%
• Ceramic 9%
• Molecular Dynamics 9%
• Carbon Nanotube 8%
• Simulation 7%