ProjectPhysX/FluidX3D

Features

• GPU-Accelerated Physics Simulations - Provides a high-performance physics engine that executes fluid dynamics simulations entirely on GPU hardware.
• Lattice Boltzmann Methods - Utilizes the lattice Boltzmann method as the core engine for simulating gas and liquid behavior.
• Free Surface Modeling - Models the liquid-gas interface using volume-of-fluid and PLIC methods to simulate droplets and free surfaces.
• OpenCL Accelerators - Provides an OpenCL-based hardware abstraction to execute simulation kernels across diverse GPUs and CPUs.
• Aerodynamic Force Analysis - Calculates lift, drag, and torque on physical objects to determine the impact of fluid motion.
• Fluid Dynamics Simulation - Provides a full CFD solver to simulate the flow of liquids and gases using the lattice Boltzmann method.
• Volume-of-Fluid Interface Tracking - Models the interface between liquids and gases to simulate droplets and free surfaces.
• Voxel-Based Simulations - Converts triangle meshes into voxel grids to model complex fluid-structure interactions and boundary conditions.
• Lift and Drag Calculations - Calculates lift and drag on objects within the fluid simulation to analyze motion impact.
• Lattice Boltzmann Thermal Simulators - Implements a thermal simulator using the lattice Boltzmann method to model heat transfer and thermal convection.
• Material Phase Simulators - Models the interaction between liquid and gas phases to simulate droplets and free surfaces.
• Voxel Mesh Import - Converts triangle meshes from binary files into a voxel grid directly using the GPU.
• Direct-Memory Media Renderers - Generates real-time rasterization and raytraced visualizations directly in memory to avoid exporting large volumetric files.
• Technical Field Visualization - Creates velocity fields, streamlines, and surfaces using a marching-cubes algorithm for fluid behavior analysis.
• Volumetric Mesh Extraction - Implements marching cubes to extract polygonal meshes from volumetric simulation data for visualization.
• Voxelization Accelerators - Provides GPU-accelerated voxelization to convert triangle meshes into simulation grid cells for high-speed import.
• Lagrangian Particle Integration - Implements Lagrangian particle tracking for two-way interaction between discrete particles and the fluid grid.
• Rotating Object Animations - Provides rotating object animation by periodically re-voxelizing meshes to simulate instantaneous angular velocity.
• Boundary Condition Enforcement - Defines fixed velocity or density for inflows and outflows to control fluid entry and exit.
• Domain Decomposition - Implements spatial domain decomposition to distribute simulation workloads across multiple GPUs.
• Global Volume Forces - Simulates pressure gradients and force fields on solid boundaries using global volume forces.
• Lagrangian Particle Tracking - Integrates passive tracers or coupled particles to study buoyancy and sedimentation.
• Thermal Convection Modeling - Models heat transfer and thermal convection by assigning cell temperatures and applying expansion and diffusion coefficients.
• Turbulent Flow Stabilization - Maintains simulation stability at high Reynolds numbers by implementing a subgrid model for fluid dynamics.
• Two-Way Fluid-Particle Coupling - Integrates discrete Lagrangian particles that both respond to and exert forces back onto the fluid grid.
• Half-Precision Memory Compression - Uses half-precision memory compression to lower memory usage and increase processing speed.

Star history