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DriftXpress optimizes drifting models by projecting kernels into low-rank feature spaces using RKHS fields, effectively lowering training costs while maintaining the one-step inference advantage of diffusion-based generation. This advancement pushes the boundaries of computational efficiency in generative modeling without sacrificing image quality metrics like FID. It represents a significant step forward for researchers focused on accelerating next-generation single-pass generators.
DriftXpress: Faster Drifting Models via Projected RKHS Fields
arXiv:2605.12183v2 Announce Type: replace-cross Abstract: Drifting Models have emerged as a new paradigm for one-step generative modeling, achieving strong image quality without iterative inference. The premise is to replace the iterative denoising process in diffusion models with a single evaluation of a generator. However, this creates a different trade-off: drifting reduces inference cost by moving much of the computation into training. We introduce DriftXpress, an accelerated formulation of drifting models based on projected RKHS fields. DriftXpress approximates the drifting kernel in a low-rank feature space. This preserves the attraction-repulsion structure of the original drifting field while reducing the cost of field evaluation. Across image-generation benchmarks, DriftXpress achieves comparable FID to standard drifting while reducing wall-clock training cost. These results show that the training-inference trade-off of drifting models can be pushed further without giving up their one-step inference advantage.
Abstract:Drifting Models have emerged as a new paradigm for one-step generative modeling, achieving strong image quality without iterative inference. The premise is to replace the iterative denoising process in diffusion models with a single evaluation of a generator. However, this creates a different trade-off: drifting reduces inference cost by moving much of the computation into training. We introduce DriftXpress, an accelerated formulation of drifting models based on projected RKHS fields. DriftXpress approximates the drifting kernel in a low-rank feature space. This preserves the attraction-repulsion structure of the original drifting field while reducing the cost of field evaluation. Across image-generation benchmarks, DriftXpress achieves comparable FID to standard drifting while reducing wall-clock training cost. These results show that the training-inference trade-off of drifting models can be pushed further without giving up their one-step inference advantage.
Machine Learning (cs.LG); Artificial Intelligence (cs.AI)
arXiv:2605.12183 [cs.LG]
(or arXiv:2605.12183v2 [cs.LG] for this version)
https://doi.org/10.48550/arXiv.2605.12183 Focus to learn more arXiv-issued DOI via DataCite
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