PhysLDM: Latent Diffusion for High-Fidelity Deformable Simulation
To address these coupled challenges, we introduce PhysLDM, a unified latent-diffusion paradigm for one-shot deformable simulation.
ProofPaper ↗
Key points
- Neural simulation of high-fidelity deformable bodies is a foundational challenge in computer graphics and physical AI.
- Long-horizon prediction for high-resolution 3D volumetric meshes is hard: autoregressive methods are prone to error accumulation, while direct multi-frame prediction at native resolution is computationally prohibitive.
- Our experiments uncover a key modeling insight: complex deformable dynamics are often chaotic, and in this regime deterministic regression tends to produce non-physical averages, whereas diffusion better models their distribution.
- To our knowledge, PhysLDM is the first high-fidelity spatiotemporal autoencoder and latent-diffusion paradigm for volumetric deformable dynamics, offering a scalable and robust approach to neural simulation.
Sources (1)
- [1]PhysLDM: Latent Diffusion for High-Fidelity Deformable SimulationHugging Face Daily Papers · Oct 18, 12:00 AM
To address these coupled challenges, we introduce PhysLDM, a unified latent-diffusion paradigm for one-shot deformable simulation.
Neural simulation of high-fidelity deformable bodies is a foundational challenge in computer graphics and physical AI.
Extractive summary: sentences quoted from the sources.
Before this
- Oct 16, 2026MOSS-Image (5B, Apache 2.0) on a 12 GB RTX 3060: INT8 quant + lodestones' 8-step DMD turbo in ComfyUI - 35 hard prompts, one seed, no cherry-picking
- Oct 16, 2026CLEAR: Cooperative Latent Flow for Visual Counterfactual Explanations with Accurate Region Preservation
- Oct 16, 2026TriFold: Folding irregular 3D Gaussians into structured latents for 3D Scene Generation
- Oct 16, 2026Learning to Be Guided: Shaping Latent Geometry for Classifier-Free Guidance
- Oct 16, 2026MOSS-Image Technical Report
- Oct 16, 2026Persistent Planar Memory for Video World Models