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JIVE addresses the persistent issue of mode collapse in generative models by introducing a training-free method that uses Jacobian geometry to maximize sample diversity without sacrificing quality. By leveraging matrix-free numerical linear algebra, this approach offers an efficient solution for improving both pixel and feature-level variation in few-step generation tasks. The technique represents a significant theoretical and practical advancement for stabilizing high-fidelity generative sampling across various benchmarks.
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JIVE: Jacobian-Informed Volume Expansion for Diverse Generative Sampling

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arXiv:2609.33906v1 Announce Type: new Abstract: Generative models often suffer from mode collapse and limited sample diversity. While prior works attempt to mitigate this by jointly generating a batch of samples and repelling their trajectories, these heuristics do not explicitly maximize the diversity of the resulting endpoints. We introduce JIVE, a training-free framework that enhances generative diversity by injecting velocity perturbations aligned with the leading right singular subspace of the generator's endpoint Jacobian. By leveraging this local geometric structure, JIVE provably maximizes endpoint diversity while preserving sample quality. To maintain practical efficiency, we compute these perturbation directions via matrix-free iterations rooted in classical numerical linear algebra, requiring only a small computational overhead. Across different benchmarks, JIVE boosts both pixel and feature-level diversity in few-step and one-step generation.

Abstract:Generative models often suffer from mode collapse and limited sample diversity. While prior works attempt to mitigate this by jointly generating a batch of samples and repelling their trajectories, these heuristics do not explicitly maximize the diversity of the resulting endpoints. We introduce JIVE, a training-free framework that enhances generative diversity by injecting velocity perturbations aligned with the leading right singular subspace of the generator's endpoint Jacobian. By leveraging this local geometric structure, JIVE provably maximizes endpoint diversity while preserving sample quality. To maintain practical efficiency, we compute these perturbation directions via matrix-free iterations rooted in classical numerical linear algebra, requiring only a small computational overhead. Across different benchmarks, JIVE boosts both pixel and feature-level diversity in few-step and one-step generation.

Machine Learning (cs.LG); Artificial Intelligence (cs.AI); Computer Vision and Pattern Recognition (cs.CV)

arXiv:2609.33906 [cs.LG]

(or arXiv:2609.33906v1 [cs.LG] for this version)

https://doi.org/10.48550/arXiv.2609.33906 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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