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This paper introduces JPEG-DLM, a novel approach that jointly trains compressors and diffusion models to learn structured, efficient compressed embeddings for language generation. By optimizing the embedding space during training rather than fixing it beforehand, the method significantly improves throughput and reduces perplexity on large-scale benchmarks like LM1B and OWT. This work represents a meaningful advancement in making continuous diffusion language models more computationally viable without sacrificing generation quality.
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One Latent, Many Tokens: Jointly Learning Compressed Embeddings for Efficient Language Diffusion

arXiv2 min de cititArticolul și perspectiva sunt în engleză.

arXiv:2609.33698v1 Announce Type: new Abstract: Most continuous diffusion language models process one latent position per token at each sampling step, making generation expensive. Two-stage methods lower the cost by reducing the latent length, but they fix the compressed embedding space before training the diffusion model. Embeddings from the fixed space can be difficult to model with diffusion and decode reliably into tokens, which limits generation quality after compression. To address this problem, we introduce JPEG-DLM (Joint-embedding Prediction for Efficient Generation with Diffusion Language Model), which jointly trains a compressor, a flow matching model and a decoding module. With joint-embedding prediction, JPEG-DLM learns compressed embeddings that are more structured, easier to model with diffusion and reliably decodable into tokens. JPEG-DLM achieves the lowest mean Gen-PPL and highest throughput among recent diffusion and flow models on LM1B and OWT. At a compression rate of 0.5 on OWT, it reaches a Gen-PPL of 34.52 and approximately 2.3 times ELF's throughput. These results suggest that jointly learning compressed embeddings offers a promising path toward efficient diffusion language modeling. Code will be released soon.

Abstract:Most continuous diffusion language models process one latent position per token at each sampling step, making generation expensive. Two-stage methods lower the cost by reducing the latent length, but they fix the compressed embedding space before training the diffusion model. Embeddings from the fixed space can be difficult to model with diffusion and decode reliably into tokens, which limits generation quality after compression. To address this problem, we introduce JPEG-DLM (Joint-embedding Prediction for Efficient Generation with Diffusion Language Model), which jointly trains a compressor, a flow matching model and a decoding module. With joint-embedding prediction, JPEG-DLM learns compressed embeddings that are more structured, easier to model with diffusion and reliably decodable into tokens. JPEG-DLM achieves the lowest mean Gen-PPL and highest throughput among recent diffusion and flow models on LM1B and OWT. At a compression rate of 0.5 on OWT, it reaches a Gen-PPL of 34.52 and approximately 2.3 times ELF's throughput. These results suggest that jointly learning compressed embeddings offers a promising path toward efficient diffusion language modeling. Code will be released soon.

25 pages, 7 figures, and 8 tables. Includes appendices

Artificial Intelligence (cs.AI)

arXiv:2609.33698 [cs.AI]

(or arXiv:2609.33698v1 [cs.AI] for this version)

https://doi.org/10.48550/arXiv.2609.33698 Focus to learn more arXiv-issued DOI via DataCite (pending registration)

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