A mixed interface-capturing/interface-tracking formulation for thermal multi-phase flows with emphasis on metal additive manufacturing processes

Keyphrases

• Multiphase Flow 100%
• Level-set 100%
• Additive Manufacturing Process 100%
• Geometric Approach 100%
• Interface Tracking 100%
• Interface Capturing 100%
• Metal Additive Manufacturing 100%
• Mixed Interface 100%
• Additive Manufacturing 66%
• Metal Interfaces 66%
• Convection 66%
• Reinitialization 66%
• Equation-based 66%
• Gasses 66%
• Variational multiscale Formulation 66%
• In Situ 33%
• Multiphysics 33%
• Thermodynamics 33%
• Three-level 33%
• Explicit Representation 33%
• Partial Differential Equations 33%
• Computational Framework 33%
• Level Set Method 33%
• Prediction Accuracy 33%
• Benchmark Problems 33%
• Computational Geometry 33%
• Laser-material Interaction 33%
• Argonne National Laboratory 33%
• Laser Reflection 33%
• Modeling Capability 33%
• Bubble Dynamics 33%
• Preconditioning Technique 33%
• Linear Solver 33%
• Mixing Interface 33%
• Navier-Stokes 33%
• Multiple Lasers 33%
• Unstructured Mesh 33%
• Robust Prediction 33%
• High-energy X-rays 33%
• Eikonal Partial Differential Equation 33%
• Phase Transition Material 33%
• Melt Solidification 33%
• Signed Distance 33%
• Keyhole Formation 33%
• Better Performance 33%
• Governing Equations 33%
• Distance Properties 33%
• Multiscale Physics 33%
• Interfacial Force Model 33%
• Additive Manufacturing Applications 33%

Engineering

• Multiscale 100%
• Level Set 100%
• Additive Manufacturing Process 100%
• Additive Manufacturing 100%
• Multiphase Flow 100%
• Scale Formulation 66%
• Partial Differential Equation 66%
• Experimental Measurement 33%
• Level Set Method 33%
• Benchmark Problem 33%
• Recursive 33%
• Laser Material Interaction 33%
• Simulated Result 33%
• Flow Simulation 33%
• Force Model 33%
• Melting Point 33%
• Thermodynamics 33%
• Distance Property 33%