Planetary Landing Simulation System
Advanced Multi-Physics Simulation: FEM, DEM, and DSMC for Lunar & Mars & Earth Landings
Planetary Landing Simulation System
Advanced Multi-Physics Simulation: FEM, DEM, and DSMC for Lunar & Mars & Earth Landings
A comprehensive multi-physics simulation framework designed for planetary landing analysis
Finite Element Method
High-fidelity structural analysis for landing gear dynamics, regolith-structure interaction, and thermal stress distribution during planetary descent.
Discrete Element Method
Particle-level simulation of regolith behavior including cratering, ejecta dynamics, and granular flow during rocket plume impingement.
Rarefied Gas Dynamics
Direct Simulation Monte Carlo for modeling rocket exhaust plumes in rarefied atmospheres, surface heat flux, and contamination analysis.
Mission Timeline
Our journey to build a comprehensive planetary landing digital twin
Core visualization engine with real-time plume dynamics and regolith ejecta simulation.
Coupling DEM solver with visualization for accurate regolith behavior modeling.
High-fidelity rarefied gas dynamics simulation for accurate plume expansion.
Landing gear stress analysis and structural response simulation.
Complete mission simulation with coupled multi-physics solvers.
The team behind Regolith Engine
