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LLM 研究论文:2026年列表(1月{至}5月)

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LLM 研究论文:2026年列表(1月{至}5月)

TL;DR · AI 摘要

2026年LLM研究论文清单聚焦混合架构、长上下文稀疏注意力、强化学习与工具使用,最值得关注的是Nemotron 3 Super,其在生产环境中已验证的高效长上下文性能。

核心要点

  • Nemotron 3 Super采用交替注意力与Mamba‑2状态空间层,显著提升长上下文推理效率。
  • 2026年研究趋势从单纯扩大Transformer转向混合架构、稀疏注意力与长上下文处理。
  • 强化学习与工具使用在LLM应用中成为主流,推动Agent Harness与Diffusion Language Model的快速发展。

结构提纲

按章节快速跳转。

  1. 作者介绍了持续整理LLM论文清单的习惯,并说明本列表为2026年上半年精选论文的参考。

  2. 列出了十个主要研究方向,包括架构设计、训练效率、推理效率、稀疏注意力、推理计算、强化学习、Agent系统、编码代理、扩散语言模型与评估基准。

  3. 2026年论文显示架构研究已从单纯扩大Transformer转向混合架构、状态空间层与稀疏注意力等技术。

  4. 作者认为Nemotron 3 Super是最值得阅读的论文,因其详细阐述了生产级长上下文高效模型的实现细节。

  5. 长上下文效率成为关键,因为LLM正被嵌入Agent Harness(如OpenClaw)中,需要处理更长的上下文。

思维导图

用一张图看清主题之间的关系。

查看大纲文本(无障碍 / 无 JS 友好)
  • 2026 LLM 研究趋势
    • 架构创新
      • 混合架构
      • 状态空间层
      • 稀疏注意力
    • 长上下文
      • Nemotron 3 Super
      • Agent Harness
    • 强化学习 & 工具使用
      • RLVR
      • OpenClaw

金句 / Highlights

值得收藏与分享的关键句。

  • Nemotron 3 Super采用交替注意力与Mamba‑2状态空间层,显著提升长上下文推理效率。

    第 1 段

    ⬇︎ 下载 PNG𝕏 分享到 X
  • 2026年研究趋势从单纯扩大Transformer转向混合架构、稀疏注意力与长上下文处理。

    第 1 段

    ⬇︎ 下载 PNG𝕏 分享到 X
  • 强化学习与工具使用在LLM应用中成为主流,推动Agent Harness与Diffusion Language Model的快速发展。

    第 1 段

    ⬇︎ 下载 PNG𝕏 分享到 X
#LLM#混合架构#长上下文#强化学习#工具使用
打开原文

As some of you know, I have the long-running habit of keeping a running list of research papers I want to read, revisit, or cite in future articles and projects.

Last year, I shared two organized paper lists, one covering January to June and another one covering July to December.

Several readers told me that these lists were very useful, so, in a similar spirit, I prepared a new list for the first half of 2026. This one covers papers I bookmarked from January through May 2026.

Please do not treat this as a complete list of everything published this year. There are so many papers published every day that this would be totally infeasible. Instead, this is a curated reference list based on papers I found interesting or relevant for my own work. I went through the titles, abstracts, and topic framing carefully while organizing the list, but I have to admit that I also only read a subset of the papers in detail.

Why make these lists in the first place? When I work on an article, book section, code example, or lecture, I often remember that I saw a relevant paper somewhere, but finding it again can be surprisingly annoying. A categorized Markdown list solves that problem for me, and I hope it is useful to you as well. (Even in the era of LLM-based web searching, having a specific context list is pretty useful, still.)

This year, the list is again heavy on reasoning models, reinforcement learning, and efficient inference, because I am biased towards bookmarking papers that are related to things I am currently working on. However, compared with the 2025 lists, I also bookmarked more papers around agent harnesses, tool use, long context, diffusion language models, and practical serving infrastructure, because that’s what I am currently pretty involved in and where the field is headed.

The categories for this research paper list are as follows. (Pro tip: In the web version of this article, you can use the table of contents on the left to jump directly to the sections that are most relevant to you.)

  1. Architecture and Model Design
  1. Efficient Training and Scaling
  1. Inference Efficiency and KV Cache
  1. Sparse Attention and Long Context
  1. Reasoning and Test-Time Compute
  1. Reinforcement Learning and RLVR
  1. Agent Systems and Tool Use
  1. Coding Agents and Software Engineering
  1. Diffusion Language Models
  1. Model Evaluation and Benchmarks

This first section collects papers on model architecture, model-release technical reports, and papers that help explain why current LLMs look the way they do.

One thing I find interesting about 2026 so far is that architecture work goes beyond making transformers larger. There is a lot of work around

All of these papers are quite interesting, which is why I bookmarked them in the first place. But if I had to pick one must-read, I’d probably be Nemotron 3 Super, because the article is _super_ detailed (no pun intended), and it describes techniques used in a model that is already in production. And it’s one of the best models in its size class after all.

One of the interesting aspects of Nemotron 3 is its hybrid-architecture design, meaning that it alternates between regular attention layers and Mamba-2 (state space model) layers to be more efficient at long contexts. In 2026, long-context efficiency is king as more and more LLMs get plugged into agent harnesses (OpenClaw etc.), which requires working with longer and longer contexts.

That being said, 120B-A12B may be a bit too large for local inference on regular consumer hardware, but there is a Nemotron 3 Nano (4B) version as well.

Image 1: Nemotron-3 architecture

Figure 1: Architecture of Nemotron-3 Super, which is a hybrid architecture using Mamba-2 layers.

Note that 2 days ago, Nvidia also released a scaled up-version of this, Nemotron 3 Ultra (550B-A55B), which scales the embedding and projection dimensions but otherwise uses the same building blocks. If you are interested in a visual, I posted about it on Substack Notes here.

This hybrid-architecture trend with alternating attention and alternative layers is a relatively popular development this year. The probably most popular open-weight LLM series that uses a similar hybrid design is probably Qwen3.6, which uses Gated DeltaNet layers instead of Mamba-2 layers for the non-attention portions. For more information, see my Hybrid Attention (https://sebastianraschka.com/llm-architecture-gallery/hybrid-attention/) write-up, which pools information from several of my previous substack articles where I wrote about these.

Also, in the paper list below, you may notice that there is now a Mamba-3 and Gated DeltaNet-2 (i.e., newer versions of Mamba-2 and GatedDeltaNet), and it will be interesting to see those in the upcoming open-weight LLMs (e.g., Nemotron-4 and Qwen4?).

Next to describing the hybrid-architecture design, the Nemotron-3 paper contains a whole lot of other interesting ablations, for example, around multi-token prediction for speculative decoding, NVFP4 pretraining versus BF16, synthetic MMLU-style data, and post-training quantization recipes, but covering these in detail would be out of scope for this overview.

  • 8 Feb, ViT-5: Vision Transformers for the Mid-2020s, https://arxiv.org/abs/2602.08071 (Most of this article is LLM-focused, but I couldn’t resist to include a new major vision transformer design.)

This section is about training systems, adaptation methods, and scaling recipes. These papers are not (all) about pre-training from scratch. Some focus on fine-tuning, distillation, test-time training, or making training work better on constrained hardware.

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