Frequency-aware remasking lifts diffusion language model test-time scaling
MATH-500 gains reach 3.73 points for LLaDA-8B-Instruct and 7.33 points for Dream-7B-Instruct.
25 stories, newest first · one card per story
MATH-500 gains reach 3.73 points for LLaDA-8B-Instruct and 7.33 points for Dream-7B-Instruct.
On LLaDA the added modules are about 0.84% of parameters and generation is up to 7.15 times faster.
On GSM8K the paper reports 10.12× and 5.12× speedups on LLaDA-8B-Instruct and Dream-7B-Instruct while keeping task quality.
On LLaDA-8B-Instruct, authors report gains of up to 9.0 points on MATH500 and 5.3 on GSM8K.
On SDAR-8B, SPOT cuts target passes by up to 6.8× and reaches up to 3.4× standard throughput.
An 856K-parameter policy on LLaDA-8B-Instruct leads the accuracy–NFE frontier on GSM8K and largely transfers to Dream-7B-Instruct.
On three diffusion language models and six benchmarks, the method raises average accuracy by up to 6.7 points at a fixed bit budget.
After TinyGSM training, LAW solves 42.2% of GSM8K at 1024 NFE versus 34.5% for uniform loopholing discrete diffusion.
Looped UDLMs match a roughly 0.5-trillion-token baseline with up to 2.8x fewer FLOPs on OpenWebText and 3.3x fewer on FineWeb-Edu.
Selective looping matches a non-looped UDLM's validation NLL with up to 3.3x fewer training FLOPs.
On QASC, matched messages reach 80.8%, while a wrong-example message lowers accuracy to 46.8%.
Weighting math answers by decoding speed beat majority voting by up to 4.2 points at no extra cost.
LangDiT redesigns Transformers for continuous diffusion LMs, cutting OpenWebText generation perplexity to 11.33–21.72.
A study of continuous diffusion language models introduces DoubleCat and SemiCat, matching discrete diffusion on TinyGSM.
Next-Concept Modeling generates text coarse-to-fine in parallel, up to 31 times faster than diffusion language models.
Hierarchical continuous diffusion models jointly denoise tokens and clusters, improving generative perplexity by over 20 points.
A2D recycles autoregressive post-training weights to improve diffusion language models without extra training.
A closed-loop steering attack injects targeted demographic bias into diffusion language models during denoising.
Representation-space MMD post-training improves diffusion language models without full sampling trajectories.
Pivot-SD self-distills masked diffusion models by training only high-impact commitments, improving LLaDA-8B on math and code.
Simplex-DMD distills continuous diffusion language models to 4 evaluations with perplexity 45.6.
E-MoE adds a discrete MoE latent to diffusion language models and improves few-step generation.
Researchers adapt Qwen3.5 hybrid-attention backbones (0.8B-9B) into diffusion language models, reaching training loss in half the tokens versus full attention.
Register tokens let diffusion language models like LLaDA and Dream carry reasoning state across cleared chunks, gaining up to 19.5 points on code.
Today 1.5K readers · 2.4K views · 754 reads · all time 189K views