搜索“DeepSeek”

a systems, it’s exploring all possible logical consequences of any kind of axiom. Dwarkesh Patel On the point about whether you can provide process-based supervision without Lean, DeepSeek had their DeepSeek Math model. They released a paper on how they trained it, and it was quite interesting. The problem with natural language proofs is you don’t know if it’s correct or not. They have a verifier, and the verifier is trained by a meta-verifier that makes sure that for all the problems they’re tr

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t. Where the frontier labs go Seventy is what disciplined engineering gets you. Going further means changing the architecture itself, and here the labs are placing different bets. DeepSeek’s multi-head latent attention squeezes each token’s key-value pair into a small latent rather than storing it in full, which both speeds inference and stretches context toward a million tokens; it was one of the more copied ideas after DeepSeek-R1. Qwen swaps standard quadratic attention for a linear network o

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es: “Pure” model makers : These are companies whose stated goal is to train models that are at the frontier, or at least close to it. This includes many Chinese companies, such as DeepSeek, Zhipu, and Minimax, but also Western ones like Poolside, Arcee, and Zyphra. It also increasingly includes sovereign AI players, such as Cohere, Sovereign, Mistral, and Trillion Labs. The recent Mythos episode has woken up some policymakers, which may lead to increased interest in sovereign model training. Big

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trained models and then train them further (”mid-training”) to apply them to our specific task. "Pre-training" — Starting from generic draft models Building off of the work of the DeepSeek team, many models are now released with multi-token prediction (MTP) heads that can be used for speculative decoding. These heads improve quality in training and performance in inference, so they’re something of a no-brainer. But for that same reason, they are first-and-foremost a train-time optimization. Bett

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之一，但那是另一个话题了。有一个在社区中评价褒贬不一的基准测试（尤其是在真正的设计师群体中）——Design Arena 甚至显示 GLM-5.2 击败了 Claude Fable 本身——那个最近被封禁的炒作机器！ 在 AI 评论界和研究界中，我尊重的几乎所有人都在亲自使用后称赞了这款模型。社区中如此集中的讨论焦点，此前只有一次在开源模型发布时如此明显——DeepSeek R1。这不是我轻易做出的比较，而当我将 Kimi K2 的发布比作“DeepSeek 时刻”时，GLM-5.2 已经远远超过了那一次。Kimi K2 令人印象深刻之处在于，开源模型性能的大幅进步似乎可以来自中国的任何地方。而 GLM-5.2 所迈出的这一步，更像是 AI 进步的一扇单向门。 Anthropic 凭借 Claude Code 创下的创纪录营收增速，很大程度上是由其作为最佳模型、以及唯一真正能做到这一点的模型所驱动的。GLM-5.2 是众多（即将到来的）开源权重模型中第一个提供可信替代方案的。这一类比非常清晰，就像当年 DeepSeek R1 表明，资源远为匮乏的开源权重实验室也能复现 OpenAI 以

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and backward. FP8 training As noted earlier, trainer↔inference mismatch can hurt your training. To fight this, we use DeepGEMM kernels to perform block-scaled FP8, as proposed by DeepSeek V3. This, contrary to popular belief, doesn't really increase the throughput, due to quantization overhead (except for specific configurations); however, it heavily decreases KL mismatch between trainer and inference, as both now use the same precision, and even the same kernels in some cases. This in turn lea

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ed. You can try that out here. We walk through a sample output from this model below. The chart compares the decode speedup from speculation, over the autoregressive baseline, for DeepSeek-V4 Pro deployed on a single B200 node processing a specific workload. The workload in this case is short sequence length ( 4k tokens/sequence) and high concurrency (batches of 32 sequences). The chart at the top shows the predicted speedup factor at a variety of different draft lengths for several drafters, al

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sual generative AI. Our team has co-developed 3 of the top 5 most popular open generative AI models of all time, including Stable Diffusion, and the only open models as popular as DeepSeek. We’ve talked a lot about language models today. They are remarkable. But language is a compressed, and ultimately limited, representation of the world. We are building models that learn from thousands of years of video, and can reason in complex visual environments—the rich, messy, complicated world we actual

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[1] Ling-2.6-1T model card [2] Hybrid models meet SGLang (blog) [3] Ragged Paged Attention [4] Fused MoE V1 kernel, tpu-inference [5] Fused MoE V1 kernel adapted in SGLang-JAX [6] DeepSeek-V2 (MLA) [7] Gated Linear Attention (GLA) [8] MiniMax-01 (Lightning Attention) [9] SGLang (RadixAttention) Acknowledgments SGLang-JAX team: jimoosciuc, Prayer, aolemila, neo, leos, pathfinder-pf, Haolin Fu, Qinghan Chen, JamesBrianD, Haoguang Cai, Yuhao Hu, cjx0709, Zhengke Zhou, Yuxin Wei, Lianfang Wang, 0xas

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a good idea. If the Tensordyne architecture pans out and can support all of the big inference engines, and Tensordyne can get enough HBM to make them in high volume, this may be a DeepSeek moment for AI hardware. RK Anand, one of the co-founders of Tensordyne, tells The Next Platform that Broadcom is the chip shepherd for the Napier compute engine and that with Broadcom being the third largest buyer of HBM memory on the planet and the third largest buyer of chip wafers from Taiwan Semiconductor

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no impact on model quality. However, many speculative decoding methods, like the EAGLE series and the native multi-token prediction (MTP) modules in recent models like Gemma 4 and DeepSeek-V4, still rely on sequential autoregression – but in the draft model instead of the target. The draft model generates draft tokens one-by-one,a poor fit for modern hardware and a limit on achievable speedup. That’s why Z Lab developed DFlash, which uses a lightweight block diffusion draft model to generate an

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nd so are harder to quantize. Models like gpt-oss combine single-precision attention operations with 4 bit matmuls to get the best of both worlds. However, key model families like DeepSeek-V3 and V4 natively (i.e., from training) support 8 bit attention operations. And other models like the Qwen and Gemma series are sometimes deployed with 8 bit KV caches to accelerate inference. So we added support for 8 bit floats (with either four or five exponent bits, aka e4m3 or e5m2). Relative to the othe

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minute task timeout. Tasks took 6m 53s on average. That makes Fable slower per task than GPT 5.5, Opus 4.7, and BU 2.0, but faster than Gemini 3 Pro, Qwen 3.6 Plus, Kimi K2.6, and DeepSeek V4 Pro. The cost comparison makes the tradeoff clear. Fable completed many of the long research and browsing tasks that usually separate stronger web agents from weaker ones. These are tasks that require following many steps of reasoning, checking constraints, and returning a structured answer rather than extr

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l, aligning a verifier, building refinement capability, and designing the test-time scaling framework MaxProof. From Gemini Deep Thinking reaching gold-medal level on IMO 2025, to DeepSeek-Math-V2 becoming the first open-source model with gold-medal-level capability, to SU-01 and NVIDIA Nemotron Cascade2 showing specialized math-contest ability in smaller models, and GPT 5.5 solving long-standing open problems, models are steadily entering harder regions of the mathematical problem space. During

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A Cross-harness generalization across diverse agent frameworks Call via API on Alibaba Cloud Model Studio . Performance Text Benchmarks Opus-4.6 Max K2.6 Thinking GLM-5.1 Thinking DeepSeek-V4-Pro Max Qwen3.6-Plus Qwen3.7-Plus Coding Agent Terminal Bench 2.0-Terminus 65.4 66.7 63.5 67.9 61.6 70.3 SWE-Verified 80.8 80.2 -- 80.6 78.8 77.7 SWE-Pro 57.3 59.5 58.8 59.0 56.6 57.6 SWE-Multilingual 77.5 76.7 -- 76.2 73.8 75.8 NL2repo 47.6 42.8 41.0 35.5 34.4 41.1 SciCode 51.9 52.2 45.1 -- 41.4 51.3 QwenW

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st for proprietary models at the frontier is flat or increasing, thanks to increasing reliance on test-time compute. Fortunately, multiple organizations, from NVIDIA and Google to DeepSeek and Kimi, are releasing excellent models under permissive licenses. While small (here, under a billion parameters) models still have strong fine-tuning potential, for more complex tasks, larger models are the move. They tend to have a higher capability ceiling, better data efficiency, and less catastrophic for

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from labs.scale.com. Claude Opus 4.7, MiniMax-M2.7, and MiniMax-M3 used Mini-SWE-Agent as scaffolding, with evaluation logic aligned with the official method. NL2Repo: Scores for DeepSeek-V4-pro, Kimi-k2.6, and GLM-5.1 are taken from https://qwen.ai/blog?id=qwen3.7. Other models were evaluated on internal infrastructure with a sandbox configured as 1C2G and a 4-hour timeout. Claude Opus 4.7, MiniMax-M2.7, MiniMax-M3, and Gemini 3.1 Pro used Claude Code scaffolding; GPT-5.5 used Codex scaffoldin

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ing ownership of their models. They're fine-tuning with their own data, running RL, and tuning inference for their own latency, throughput, and cost needs. Open-weight models from DeepSeek, Qwen and others have reached production quality, and inference engines like vLLM and SGLang have matured alongside them. For the first time, the full stack to own and serve your models is there, without sacrificing capability. “Modal powers both our reinforcement learning infrastructure and production inferen

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livered the final 1.2x improvement in the last hours. We also ran the same task with several other models under identical conditions. GLM 5.1 reached 7.3x; Kimi K2.6 reached 5.0x; DeepSeek V4 Pro reached 3.3x; Qwen3.6-Plus reached 1.1x. Models that stopped early did so because the agent issued no tool calls for five consecutive rounds — the model concluded it could no longer make progress and voluntarily ended the session. In addition to achieving strong kernel generation results on PPUs, Qwen3.

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came from treating inference as a full-stack problem: profiling end-to-end, identifying the most expensive operations, and eliminating them one by one. ThunderMLA. Kimi K2.5 uses DeepSeek's Multi-head Latent Attention (MLA) architecture. Standard implementations run two separate kernel launches per decode step. Our ThunderMLA — part of our ThunderKittens kernel library — fuses these into a single megakernel, eliminating launch overhead and the tail effects between them. On representative decode

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