SADA: Stability-guided Adaptive Diffusion Acceleration
Ting Jiang, Yixiao Wang, Hancheng Ye, Zishan Shao, Jingwei Sun, Jingyang Zhang, Zekai Chen, Jianyi Zhang, Yiran Chen, Hai Li

TL;DR
SADA introduces a stability-guided adaptive approach to accelerate diffusion model sampling, achieving over 1.8x speedups with minimal quality loss by leveraging a unified stability criterion for adaptive sparsity and principled ODE-based approximations.
Contribution
It proposes a novel stability-guided adaptive acceleration framework for ODE-based diffusion models, unifying step-wise and token-wise sparsity decisions for improved speed and fidelity.
Findings
Achieves ≥1.8× speedup with minimal fidelity loss.
Outperforms prior acceleration methods.
Seamlessly adapts to different pipelines and modalities.
Abstract
Diffusion models have achieved remarkable success in generative tasks but suffer from high computational costs due to their iterative sampling process and quadratic attention costs. Existing training-free acceleration strategies that reduce per-step computation cost, while effectively reducing sampling time, demonstrate low faithfulness compared to the original baseline. We hypothesize that this fidelity gap arises because (a) different prompts correspond to varying denoising trajectory, and (b) such methods do not consider the underlying ODE formulation and its numerical solution. In this paper, we propose Stability-guided Adaptive Diffusion Acceleration (SADA), a novel paradigm that unifies step-wise and token-wise sparsity decisions via a single stability criterion to accelerate sampling of ODE-based generative models (Diffusion and Flow-matching). For (a), SADA adaptively allocates…
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Taxonomy
TopicsNuclear reactor physics and engineering
