We present Xiaomi-Robotics-1, a foundational vision-language-action (VLA) model capable of (1) following diverse language instructions to perform a wide range of mobile manipulation tasks in unseen environments out-of-the-box, and (2) efficiently adapting to novel downstream tasks with minimal fine-tuning data. We propose a two-stage training recipe consisting of pre-training and post-training. During pre-training, we imbue the model with broad and generalizable action-generation capabilities by training on over 100k hours of real-world manipulation trajectories collected via UMI devices. Crucially, we develop a scalable auto-labeling pipeline that annotates trajectory clips with natural languages describing scene state transitions, providing rich and precise conditioning for action learning. During post-training, we aim to align these capabilities with robot embodiments and imperative instructions that humans naturally use to prompt robots. Extensive experiments demonstrate strong scaling behavior. Xiaomi-Robotics-1 consistently improves with increased data scales and model sizes during pre-training. This scaling behavior directly transfers to post-training, where a stronger pre-training model yields better out-of-the-box real-robot performance in unseen environments. Furthermore, Xiaomi-Robotics-1 serves as a strong robot foundation policy that can be efficiently fine-tuned on complex, dexterous tasks with high data efficiency. Across multiple simulation benchmarks, Xiaomi-Robotics-1 outperforms state-of-the-art methods. Notably, it establishes a new state-of-the-art with a 57.4% success rate on RoboCasa365, surpassing the previous best of 46.6%. Furthermore, it achieves an average score of 20.07 on RoboDojo, significantly outperforming the prior state-of-the-art (13.07). Code and model checkpoints will be released. Project page: https://robotics.xiaomi.com/xiaomi-robotics-1.html
核心贡献 · Key contributions
提出小米机器人-1,一个基于超过 10 万小时真实轨迹训练的两阶段 VLA 模型。 Proposes Xiaomi-Robotics-1, a VLA model trained on over 100k hours of real-world trajectories with two-stage training.
开发了可扩展的自动标注流程,用自然语言状态转换标注轨迹片段。 Develops a scalable auto-labeling pipeline for annotating trajectory clips with natural language state transitions.
展示了持续的缩放行为:性能随预训练数据量和模型尺寸增大而提升。 Demonstrates consistent scaling behavior: performance improves with more pre-training data and larger model size.
规模扩张迁移到后训练,在未见环境中产生强大的开箱即用真实机器人性能。 Scaling transfers to post-training, yielding strong out-of-the-box real-robot performance in unseen environments.
在四个模拟基准上取得最先进结果,包括 RoboCasa365(57.4%)和 RoboDojo(20.07)。 Achieves state-of-the-art results on four simulation benchmarks including RoboCasa365 (57.4%) and RoboDojo (20.07).
作为高效的基础策略,用极少数据即可高效适应新颖灵巧任务。 Serves as an efficient foundation policy for few-shot adaptation to novel dexterous tasks with minimal data.
局限 · Limitations
预训练仅依赖 UMI 夹爪数据,可能未涵盖所有机器人具身约束。 Pre-training relies solely on UMI gripper data, which may not capture all robot embodiment constraints.
自动标注可能在状态转换描述中引入噪声或不准确,影响动作学习。 Auto-labeling may introduce noise or inaccuracies in state transition descriptions, affecting action learning.
后训练中对齐状态转换提示与命令式指令的能力仍然有限。 Post-training alignment between state-transition prompts and imperative instructions is still limited.
评估主要在模拟或受控实验室环境;真实世界开放世界泛化未验证。 Evaluation is mostly in simulation or controlled lab environments; real-world open-world generalization is unverified.
训练需要巨大算力资源(10 万+小时数据、最高 100 亿参数),限制了可复现性。 Training requires massive compute resources (100k+ hours of data and up to 10B parameters), limiting reproducibility.
论文章节 · Sections(共 16)
小米机器人 1:基于超 10 万小时真实轨迹的视觉-语言-动作模型缩放Xiaomi-Robotics-1: Scaling Vision-Language-Action Models with over 100K Hours of Real-World Trajectories
1 引言1 Introduction
2 Xiaomi-Robotics-12 Xiaomi-Robotics-1
2.1 模型2.1 Model
2.2.1 预训练2.2.1 Pre-training
2.2.2 后训练2.2.2 Post-training
3 实验3 Experiments
3.1 预训练:数据与模型 Scaling3.1 Pre-training: Data and Model Scaling
3.2 后训练:新环境中的开箱评估3.2 Post-training: Out-of-the-Box Evaluation in Novel Environments
3.2.1 扩展预训练数据的有效性3.2.1 Effectiveness of Scaling Pre-training Data
3.2.2 模型规模扩展的有效性3.2.2 Effectiveness of Scaling Model Size
3.3 下游微调:高效适应新任务3.3 Downstream Fine-tuning: Efficient Adaptation to New Tasks