A reactive molecular dynamics study of bi-modal particle size distribution in binder-jetting additive manufacturing using stainless-steel powders

Chemical Compounds

• Particle Size Distribution 84%
• Iron Atom 74%
• Sintering 70%
• Additive 57%
• Oxygen Atom 51%
• Molecular Dynamics 47%
• Simulation 40%
• Curing 39%
• Mixture 37%
• Chromium Cation 36%
• Internal Oxidation 30%
• Microstructure 28%
• Powder Metallurgy 25%
• Energy Barrier 20%
• Green 14%
• Strength 13%
• Diffusion 13%
• Porosity 12%
• Dioxygen 10%
• Reduction 9%
• Metal 9%
• Time 7%

Physics & Astronomy

• particle size distribution 92%
• stainless steels 75%
• manufacturing 71%
• molecular dynamics 61%
• iron 42%
• oxygen atoms 26%
• sintering 26%
• curing 18%
• beds 16%
• chemical composition 15%
• atoms 12%
• mechanical properties 11%
• hydroxyl radicals 11%
• packing density 10%
• microstructure 10%
• infiltration 9%
• austenitic stainless steels 9%
• powder metallurgy 9%
• simulation 9%
• consolidation 9%
• chemical properties 8%
• statistical analysis 8%
• field theory (physics) 8%
• chromium 8%
• cations 7%
• fusion 6%
• oxidation 6%
• porosity 6%
• products 5%
• oxygen 5%
• metals 4%
• energy 2%

Medicine & Life Sciences

• Stainless Steel 100%
• Molecular Dynamics Simulation 95%
• Particle Size 89%
• Iron 71%
• Oxygen 35%
• austenitic steel 21%
• Metallurgy 18%
• Chromium 14%
• Porosity 14%
• Hydroxylation 14%
• Hydroxyl Radical 13%
• Cations 12%
• Metals 10%
• Rupture 10%
• Technology 8%