Including but not limited to the following contents:
Track 1: Multiphase Flow Theory and Computational Fluid Dynamics Methods
Multiphase Flow Theory and Modeling
Gas-Liquid/Gas-Solid/Liquid-Solid Two-Phase Flow
Particle Flow and Particle Transport
Droplet and Bubble Dynamics
Phase Change and Heat and Mass Transfer
Interface Dynamics and Topological Changes
Multiphase Flow Stability and Transition
Multiscale Multiphase Flow Modeling
Finite Volume and Finite Element Methods
Interface Capturing Methods (VOF/Level Set/Phase Field)
Euler-Lagrange and Two-Fluid Models
Lattice Boltzmann Method
Turbulence Models and Coupling with Multiphase Flow
High-Performance Computing and Parallel Algorithms
Numerical Scheme Stability and Accuracy
Meshless and Particle Methods
Multidisciplinary Coupling Simulation
Track 2: Intelligent Methods and Applications for Multiphase Flow
Machine Learning Enhanced Multiphase Flow Simulation
Physical Information Neural Network
Data-Driven Multiphase Flow Modeling
Multiphase Flow Experiment Verification and Benchmarks
Multiphase Flow in Energy Systems
Multiphase Flow in Chemical Reaction Vessels
Multiphase Flow Optimization and Control
Uncertainty Quantification and Reduced-Order Models
Multiphase Flow Visualization and Measurement
AI-Assisted Multiphase Flow Design