TAO: Tool-Aware Joint Scheduling for LLM-Based Agentic Serving
TAO: Tool-Aware Joint Scheduling for LLM-Based Agentic Serving Original: Shuhuai Li et al., "TAO: Tool-Aware Joint Scheduling for LLM-Based Agentic Serving"…
TAO: Tool-Aware Joint Scheduling for LLM-Based Agentic Serving Original: Shuhuai Li et al., "TAO: Tool-Aware Joint Scheduling for LLM-Based Agentic Serving"…
Diffusion language models must decide 'what' and 'where' at the same time Diffusion language models generate sentences by repeatedly filling masked tokens. To decode…
Introduction In settings where the batch size is close to 1, such as conversational services, the latency of a mixture-of-experts language model comes mostly from reading…
Recent language models keep increasing the amount of information packed into a single vocabulary entry. Per-layer embeddings (PLE), first introduced in Gemma 3n, carried…
Problem: Why It's Hard to Unify Understanding and Generation in One Representation There have been many attempts to merge image understanding and image generation into a…
Introduction A game world built by a video generation model alone stores off-screen state nowhere. Every time a corridor you have already passed through is redrawn, it…
Introduction In models that handle long contexts, the compression operation that reduces multiple tokens to a single vector becomes a performance bottleneck. This paper…
The sequential bottleneck of sampling one token at a time Large language models can compute an entire sentence in parallel during training, but when generating text they…
The Cost and Accuracy Dilemma of Long Agent Trajectories LLM agents accumulate long trajectories by repeating reasoning and tool calls for hundreds of rounds. To make…
Speculative sampling reuses future video predictions to reduce response latency. How it works, recomputation costs, and the limits of the serving experiments.
DLite explained through a candidate-verification example, cache ownership, and a careful comparison of acceptance length and decoding speed.
An analysis of SpecAgent, where a weaker model drafts tool calls and a stronger model verifies them, covering its design, experimental results, and limitations.
HLA-WM retrieves past chunks using camera geometry to restore scene memory. At 60 seconds, its history memory is about 12× smaller than Full KV and 6× larger than GDN,…
DCOCO reselects existing parallel draft candidates using contextual scores. This review distinguishes accepted length from actual throughput and examines correction…
Fixed-point behavior connects KV sharing, state reuse, and distilled prefill in looped language models. We review the savings and accuracy trade-offs demonstrated on…
SparseDecoding calibrates pruning on model-generated tokens and adds a decoding-specific sparse kernel. We examine the conditions behind its maximum 1.48× speedup on A100…
MC-Sparse separates three sources of quality and efficiency loss in sparse DiT attention. This review explains why token selection and kernel execution costs must be…
TokenRouter: An Efficient Serving System for Token-Level LLM Routing TL;DR — Routing an LLM at the token level rather than the session/query level can substantially push…
Mechanics of Long-Context Hybrid Models: From Hybrid Attention to Hybrid Position TL;DR — These days open-source LLMs are rapidly shifting from models that "use full…
TRACE: Rollout-Aligned FP4 Quantization-Aware Training — MoE LLM RL at BF16 Quality, up to 5.4x Faster TL;DR In reinforcement learning (RL) for MoE LLMs, quantizing…
SlimKV: Compressing Tokens and Features Together, Cutting the KV Cache by up to 32× with Reconstruction-Free Latent-Space Attention TL;DR SlimKV is a question-agnostic…
TaSQ: 'Tailored Design' of the Quantization Space for a 1-bit KV Cache TL;DR — TaSQ (Tailored Space Vector Quantization) redesigns the very target space to which vector…
How to Hand Off KV Caches As-Is Between Different LLMs: HeteroFold TL;DR: HeteroFold, a method that reuses the KV cache between models with different tokenizers and…
The KV Cache Is the New Memory Wall: Three Regimes and Five Domains of Long-Context LLM Inference TL;DR — Long-context LLM decode inference is bound by memory bandwidth,…
WavePP — A Pipeline-Parallel Prefill Runtime That Burns In Prefix Reuse TL;DR Built on top of TensorRT-LLM, WavePP overlaps request admission (reuse consensus, cache…
Phase Sensitivity: The 'Periodic Weakness' Created by Chunked KV-Cache Compression TL;DR — In models that use chunked KV-cache compression (such as the DeepSeek-V4…
Paper MassAlloc Attention (MALA): Letting Attention Allocate Its Own Compute TL;DR — Full softmax attention (FullAttn) performs all post-score computation after QK score…
WorldAttention: System Co-Design of an Interactive Video World Model That Drops the Sliding Window TL;DR — Text-controlled interactive video world models are trapped…
PISA: Pyramid Top-$K$ Selection Lowers the Cost of Block-Sparse Attention to $O(N\log N)$ TL;DR — Block-sparse attention makes attention computation linear, but block…
LumoTree: Path-Parallel Speculative Verification for Hybrid Language Models TL;DR — Tree speculative decoding in hybrid models that mix Gated DeltaNet with full attention…
SPECTRA: A Reconfigurable LLM Accelerator That Changes Its Hardware With Every Inference Stage TL;DR Speculative decoding oscillates between prefill (compute-bound GEMM),…
Branching on Compressed Memory: Adding Tree Reasoning to DeepSeek-V4 TL;DR Adding tree-structured speculative decoding to DeepSeek-V4-Flash yields longer acceptance…
Flash-dLLM: I/O-First Diffusion LLM Acceleration, Unlocking 210.6 tokens/s with Fused Cache and Self-Verification One-Line Summary (TL;DR) Diffusion LLMs (dLLMs) support…
Parallel Inference without Drafter-Side KV Cache: H-Spec's Hybrid Speculative Decoding TL;DR shows that the bottleneck in concurrent serving is that a block-diffusion…
Analytical PD-inference provisioning uses instance counts and KV-cache reservations to find the lowest-power deployment for a target capacity.
VC-Attention is a training-free kernel that removes value-quantization and softmax bottlenecks in low-bit video-DiT attention, speeding it up 1.59× on B200.
DeepSeek-V4.1-Flash: A Multimodal MoE That Cuts the KV Cache to 1/4 While Raising Performance Further TL;DR. DeepSeek-V4.1-Flash, released by DeepSeek-AI, is a multimodal…
Fathom: Accelerating 1M-Token Decoding by 1.67x with Query-Adaptive Depth Scanning TL;DR When agent sessions stretch to 1M tokens and dozens of sessions reside…
Waking the MoE on SSD: Serving a 35B MoE at 20 tok/s on a 24 GB Desktop with Edge0 One-line summary (TL;DR) Even at 4-bit, a 35B-class MoE occupies 19.5 GB and cannot…
Is "Lossless" Speculative Decoding Really Lossless? — The Numerical-Precision Trap Exposed by Reproducing Orthrus TL;DR — Orthrus attaches a diffusion view to a frozen AR…
ZGCM-1: How a 7B Dense Model Trades Blows with 235B Frontiers — A Fully Open, Ultra-Efficient Foundation Model Design Report TL;DR — With a single 7.39B dense model,…
SAS: A Simple Attention Sparsification That Learns Context Ranking Directly Without Distillation TL;DR — In post-training attention sparsification, inject the continuous…
CoVeR: Coverage-Based Pruning That Cuts Visual Tokens of Multi-View 3D Reasoning by up to 92% Using Geometry Alone One-Line Summary (TL;DR) Rendering a 3D scene into…
SQS: Fusing Pruning and Quantization into One Bayesian Learning — Where Spike-and-Slab Meets GMM TL;DR — Doing pruning and low-bit quantization separately leaves…
Linear Attention Rewritten with a Kalman Filter: Kalman Delta Networks TL;DR The fixed-size recurrent memory update of linear attention is reinterpreted as a…
X-AuT: Pruning Audio Encoders in Speech LLMs with Behavioral Probes and Cross-Scale Distillation TL;DR X-AuT is a framework that progressively prunes the audio encoder…
Deadline-Filling Prefill Chunks: SLOWeave — An Adaptive Chunking Scheduler for LLM Serving TL;DR — Instead of a fixed prefill chunk size, we propose SLOWeave, an online…
Why Are Video LLMs Still So Expensive? — A Four-Stage Guide to Inference Efficiency Mechanisms TL;DR — This paper classifies 125 VideoLLM inference efficiency studies…
Hydragen: The Secret Weapon for Decoding Large Batches with Shared Prefixes up to 32× Faster TL;DR By decomposing the prefix and suffix using softmax denominator…