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Autores principales: Falahati, Ali, Creager, Elliot, Kamath, Gautam, Mohapatra, Shubhankar
Formato: Preprint
Publicado: 2026
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Acceso en línea:https://arxiv.org/abs/2605.12183
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author Falahati, Ali
Creager, Elliot
Kamath, Gautam
Mohapatra, Shubhankar
author_facet Falahati, Ali
Creager, Elliot
Kamath, Gautam
Mohapatra, Shubhankar
contents 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.
format Preprint
id arxiv_https___arxiv_org_abs_2605_12183
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle DriftXpress: Faster Drifting Models via Projected RKHS Fields
Falahati, Ali
Creager, Elliot
Kamath, Gautam
Mohapatra, Shubhankar
Machine Learning
Artificial Intelligence
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.
title DriftXpress: Faster Drifting Models via Projected RKHS Fields
topic Machine Learning
Artificial Intelligence
url https://arxiv.org/abs/2605.12183