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arXiv 2605.25979cs.CV

LLaVA-OneVision-2:迈向下一代感知智能

LLaVA-OneVision-2: Towards Next-Generation Perceptual Intelligence

Glint Lab(Glint实验室);AIM for Health Lab(健康AI实验室);MVP Lab(MVP实验室)
Xiang An, Yin Xie, Feilong Tang, Yunyao Yan, Huajie Tan, Didi Zhu, Changrui Chen, Xiuwei Zhao, Bin Qin, Kaicheng Yang, Yifei Shen, Yuanhan Zhang, Kaichen Zhang,… 展开作者

Xiang An, Yin Xie, Feilong Tang, Yunyao Yan, Huajie Tan, Didi Zhu, Changrui Chen, Xiuwei Zhao, Bin Qin, Kaicheng Yang, Yifei Shen, Yuanhan Zhang, Kaichen Zhang, Wenkang Zhang, Zheng Cheng, Nansen Zhang, Chunsheng Wu, Chunjiang Ge, Zimin Ran, Dehua Song, Chunyuan Li, Shikun Feng, Ming Hu, Zhangquan Chen, Junbo Niu, Bo Li, Ziyong Feng, Ziwei Liu, Zongyuan Ge, Jiankang Deng

AI总结:

提出LLaVA-OV-2模型,通过编解码流令牌化、窗口注意力和3D RoPE实现统一视频理解与时空定位,在多项基准上超越Qwen3-VL-8B。

摘要:

我们介绍LLaVA-OneVision-2(LLaVA-OV-2),这是LLaVA-OneVision系列中迄今为止能力最强的视觉语言模型,在广泛的多模态基准测试中均取得了卓越性能。该模型基于原生OneVision编码器,并引入窗口注意力机制以实现高效的局部计算,同时保持原生分辨率。其关键进展是编解码流令牌化:它将压缩视频视为连续的比特成本流,其中比特成本动态决定自适应时间分组,运动残差线索选择显著空间证据到紧凑的视觉画布中。这种分配将有限的令牌预算集中在包含事件的内容上,相比固定图片组,实现了更稳定的长视频令牌压缩。共享的3D RoPE进一步将编解码画布、采样帧和图像置于统一的时空坐标系中。此外,我们围绕大规模开放监督构建了LLaVA-OV-2数据和训练栈:约800万重新标注的视频样本用于预训练,400万样本的空间语料库用于微调。我们还引入了JumpScore,这是一个针对高频、密集重复运动中的细粒度定位的时空定位基准,填补了现有视频评估的空白。LLaVA-OV-2的一项突出能力是其在视频理解、时空定位、空间定位和操作轨迹推理上的统一感知。在JumpScore上,LLaVA-OneVision-2-8B达到74.9 JumpScore mAP,比Qwen3-VL-8B(30.1)高出44.8分;在同一基准的匹配视觉令牌预算下,编解码流输入相比帧采样在时空定位上提升9.7分。在标准基准上,LLaVA-OneVision-2-8B在视频任务上平均比Qwen3-VL-8B高出4.3分,在空间任务上高出5.3分,在跟踪任务上平均J&F高出15.6分。

英文摘要:

We introduce LLaVA-OneVision-2 (LLaVA-OV-2), the most capable vision-language model in the LLaVA-OneVision series to date, achieving superior performance across a broad range of multimodal benchmarks. The model builds on a native OneVision-Encoder and incorporates Windowed Attention for efficient local computation while maintaining native resolution. Its key advance is codec-stream tokenization: it treats compressed video as a continuous bit-cost stream, where bit-cost dynamics determine adaptive temporal groups, and motion-residual cues select salient spatial evidence into compact visual canvases. This allocation concentrates a limited token budget on event-bearing content, enabling more stable long-video token compression than fixed groups of pictures. A shared 3D RoPE further places codec canvases, sampled frames, and images in a unified spatiotemporal coordinate system. Furthermore, we build the LLaVA-OV-2 data and training stack around large-scale open supervision: approximately 8M re-captioned video samples for pretraining, a 4M-sample spatial corpus for fine-tuning. We also introduce JumpScore, a temporal-localization benchmark targeting fine-grained grounding in high-frequency, densely repeated motion, a regime underrepresented by existing video evaluations. A standout capability of LLaVA-OV-2 is its unified perception across video understanding, temporal grounding, spatial grounding, and manipulation-trace reasoning. On JumpScore, LLaVA-OneVision-2-8B reaches 74.9 JumpScore mAP, surpassing Qwen3-VL-8B (30.1) by +44.8 points; under matched visual-token budgets on the same benchmark, codec-stream inputs improve temporal grounding over frame sampling by +9.7 points. Across standard benchmarks, LLaVA-OneVision-2-8B further outperforms Qwen3-VL-8B by +4.3 average points on video tasks, +5.3 on spatial tasks, and +15.6 average J&F on tracking tasks.

机构、总结、中文摘要均由AI分析而来,可能存在错误,请以论文正文为准。

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