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Particle-Filtering-based Latent Diffusion for Inverse Problems

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arxiv 2408.13868 v2 pith:JKZ7SUFS submitted 2024-08-25 cs.CV

classification cs.CV
keywords inversesolutiondiffusionlatentparticle-filtering-basedproblemsframeworkgaussian
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Current strategies for solving image-based inverse problems apply latent diffusion models to perform posterior sampling.However, almost all approaches make no explicit attempt to explore the solution space, instead drawing only a single sample from a Gaussian distribution from which to generate their solution. In this paper, we introduce a particle-filtering-based framework for a nonlinear exploration of the solution space in the initial stages of reverse SDE methods. Our proposed particle-filtering-based latent diffusion (PFLD) method and proposed problem formulation and framework can be applied to any diffusion-based solution for linear or nonlinear inverse problems. Our experimental results show that PFLD outperforms the SoTA solver PSLD on the FFHQ-1K and ImageNet-1K datasets on inverse problem tasks of super resolution, Gaussian debluring and inpainting.

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  1. Inverse Problem Sampling in Latent Space Using Sequential Monte Carlo

    eess.IV 2025-02 conditional novelty 6.0 of 10

    LD-SMC uses sequential Monte Carlo in latent diffusion space with auxiliary per-timestep observations to improve posterior sampling for inverse problems, showing strong gains on inpainting.

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