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小米-GUI-0 技术报告

Xiaomi-GUI-0 Technical Report

June 30, 2026
作者: Wanxia Cao, Chengzhen Duan, Pei Fu, Pengzhi Gao, Niu Lian, Fazhan Liu, Hui Liu, Heng Qu, Qinzhuo Wu, Zhehao Yu, Tongbo Chen, Shiqi Cui, Anan Du, Shukai Jia, Yuanfa Li, Yike Liu, Wenchao Lu, Haoyuan Sun, Jiatong Sun, Cheng Tan, Yajie Wang, Changqiao Wu, Tao Xiong, Jiahui Yang, Yuxuan Yuan, Ruoceng Zhang, Shaojie Zhang, Jian Zhu, Jian Luan, Cong Zou
cs.AI

摘要

图形化用户界面(GUI)代理基于视觉语言模型,通过界面操作(如点击、滑动、文本输入和导航)在真实应用中端到端地完成用户任务。然而,现有的GUI代理主要在离线轨迹、模拟环境和标准化基准上进行训练与评估。这些环境与真实应用在界面布局、交互逻辑和异常状态分布上存在显著差异,无法真实反映实际使用中的执行稳定性——真实场景中账户状态、权限弹窗、支付认证和风险控制会持续改变状态分布,导致基准分数与实际可用性之间存在持续差距。为弥合这一差距,我们提出Xiaomi-GUI-0,一个面向真实移动环境的原生多模态GUI代理,在真实设备闭环中完成训练与评估。其核心是基于真实设备主导的混合基础设施:物理设备作为主要执行环境,沙盒提供辅助支持,使数据采集、训练、模型部署和评估共享接近实际部署的执行分布。我们构建了多源训练数据,涵盖高频头部任务、面向长尾意图的高泛化数据以及用于反思与记忆的能力增强数据,并引入错误驱动数据飞轮,将失败轨迹转化为纠正动作、反思性解释和恢复示范。模型通过渐进式三阶段流程训练:监督微调、步骤级强化学习和智能体强化学习。在公开基准和内部RealMobile上的评估显示,Xiaomi-GUI-0在RealMobile上达到72.0%的成功率,在AndroidWorld上达到78.9%,同时在实际任务中显著提升了执行稳定性和异常状态识别能力。
English
Graphical user interface (GUI) agents build on vision-language models to complete user tasks end-to-end in real applications through interface actions such as tapping, swiping, text entry, and navigation. However, existing GUI agents are trained and evaluated largely on offline trajectories, simulated environments, and standardized benchmarks. These differ substantially from real applications in interface layout, interaction logic, and abnormal-state distribution, and cannot faithfully characterize execution stability in real-world use, where account states, permission dialogs, payment authentication, and risk control continually reshape the state distribution and open a persistent gap between benchmark scores and real usability. To close this gap, we propose Xiaomi-GUI-0, a native multimodal GUI agent for real mobile environments, trained and evaluated within a real-device closed loop. At its core is a real-device-dominant hybrid infrastructure, where physical devices are the primary execution environment and sandboxes provide auxiliary support, so that data collection, training, rollout, and evaluation share an execution distribution close to real deployment. We construct multi-source training data spanning high-frequency head tasks, high-generalization data for long-tail intents, and capability-enhancement data for reflection and memory, and introduce an error-driven data flywheel that turns failure trajectories into corrected actions, reflective explanations, and recovery demonstrations. The model is trained through a progressive three-stage pipeline of supervised fine-tuning, step-level reinforcement learning, and agentic reinforcement learning. Evaluated on public benchmarks and our in-house RealMobile, Xiaomi-GUI-0 achieves 72.0% success on RealMobile and 78.9% on AndroidWorld, while substantially improving execution stability and abnormal-state recognition in real-world tasks.