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291 posts in total. Keep on posting.
Showing posts 97–108 of 291. Each entry opens locally on this site; legacy Hexo posts link back to their original article at the bottom for reference.
2026
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Moebius:为 MoE 大模型推理服务实现无缝运行时并行策略切换
Moebius 允许在 MoE 模型推理服务过程中于专家并行和张量并行之间实时切换,每次切换仅需 215-434 ms、额外内存开销仅 2.4%,RL rollout 速度提升 1.16-1.25 倍。
- EN
JetSpec: Breaking the Scaling Ceiling of Speculative Decoding with Parallel Tree Drafting
JetSpec resolves the causality-efficiency dilemma in speculative decoding by training a causal parallel draft head that generates all nodes of a candidate tree in one forward pass while preserving branch-wise autoregressive conditioning through a tree-causal attention mask — achieving up to 9.64x speedup on MATH-500.
- 中
JetSpec:用并行树草稿突破推测解码的扩展上限
JetSpec 通过训练一个因果并行草稿头,在单次前向传播中生成推测解码候选树的全部节点,同时借助树因果注意力掩码保留分支级因果条件依赖——将 MATH-500 端到端加速比提升至 9.64 倍。
- EN
SigmaScale: Learning to Scale Weight Matrices for Better SVD-Based LLM Compression
SigmaScale learns per-layer row and column scaling vectors to reshape weight-matrix singular-value spectra before truncated SVD, improving compression quality in the mild-to-moderate regime without requiring specialized hardware.
- 中
SigmaScale 阅读笔记:通过学习缩放矩阵改进 SVD 大语言模型压缩
SigmaScale 通过梯度下降学习每层权重矩阵的行列缩放向量,在截断 SVD 之前重塑奇异值谱,从而在温和到中等压缩比下超越基于解析缩放的现有方法,且不依赖任何专用硬件。
- EN
ReMP: Low-Downtime Runtime Model-Parallelism Reconfiguration for LLM Serving
ReMP turns static TP/PP topology into a runtime-adjustable resource, achieving topology switches in 1–7 seconds (100× faster than restart) through shared CPU weight stores, two-dimensional KV cache migration, and pre-built MPU state snapshots — enabling adaptive LLM serving under dynamic workloads.
- 中
ReMP:LLM 推理服务中的低停机运行时并行拓扑重配置
ReMP 将 TP/PP 拓扑从启动时的静态参数变成可在线切换的动态资源,通过 CPU 共享权重存储、二维 KV Cache 迁移和预构建 MPU 状态快照,在 7B 到 70B 参数规模上将拓扑切换时间从分钟级压缩到 1-7 秒,速度提升达 100 倍。
- EN
SparDA: Sparse Decoupled Attention for Efficient Long-Context LLM Inference
SparDA introduces a fourth per-layer Forecast projection that decouples KV block selection from attention computation, enabling lookahead CPU-to-GPU prefetch and a compact GQA-level indexer—delivering up to 1.7x decode speedup and 5.3x throughput over sparse attention baselines on 128K-context inference.
- 中
SparDA:稀疏解耦注意力,让长上下文推理又快又准
SparDA 通过引入第四个逐层 Forecast 投影,将 KV 块选择从注意力计算中解耦,实现提前一层预测并异步预取 CPU KV 缓存,在 128K 上下文推理中实现最高 1.7 倍解码加速和 5.3 倍吞吐量提升。
- EN
Critique-GRPO: Advancing LLM Reasoning with Natural Language and Numerical Feedback
Critique-GRPO integrates natural language critiques into online RL loops to overcome the three core failure modes of purely numerical reward feedback—performance plateaus, failed self-reflection, and persistent failures—achieving up to +21.6% Pass@1 improvements over GRPO on challenging math and reasoning benchmarks.
- 中
Critique-GRPO:用自然语言批评反馈突破强化学习训练瓶颈
Critique-GRPO 将自然语言批评反馈引入在线强化学习循环,解决纯数值奖励训练的三大结构性瓶颈——性能平台期、无效的自发自我反思与持续性失败——在 AIME 2024 等高难度推理基准上实现最高 +26.7% 的 Pass@1 提升。
- EN
MRAgent: Why Memory Should Be Reconstructed, Not Retrieved
MRAgent replaces passive top-k retrieval with active, multi-step graph traversal over a Cue-Tag-Content associative memory, achieving up to 23% improvement on long-horizon conversational benchmarks while using 5x fewer tokens than competing methods.