XPACE: Joint World and Action Modeling from Heterogeneous Experience
XPACE通过结合异构经验学习和模拟生成,解决了通用机器人选择动作及预测动作后果的问题,提高了行为鲁棒性和任务完成率。
XPACE通过结合异构经验学习和模拟生成,解决了通用机器人选择动作及预测动作后果的问题,提高了行为鲁棒性和任务完成率。
本文提出X-AuT框架,通过层次选择、表示对齐和跨尺度蒸馏等方法压缩语音大模型的音频编码器,减少推理成本同时保持性能。
为了解决长时任务中多技能执行难题,提出Behavior-Skill基准,通过细粒度技能实例评估视觉-语言-动作策略,提供中间状态恢复和成功条件以独立评测。
为解决机器人学习中跨实体泛化问题,提出AnyWorld框架,通过分解动作、视角和实体,将单个人类互动扩展为多样化的机器人原生体验。
This study addresses the fragmentation in embodied intelligence evaluation and the lack of empirical continuity in sim-to-real deployment by proposing a native sim-to-real tracking reduction framework alongside a five-level handover diagnostic system. By integrating MotionBench unified metrics, cross-domain identity binding, and System2-1-0 combinatorial attribution techniques, we establish a shared tracking mechanism between simulation and physical platforms. The research reproduces multi-benchmark checkpoints and achieves trajectory alignment, effectively validating fault attribution and remediation capabilities under hardware constraints. Consequently, this work establishes a complete empirical closed loop from benchmark execution to physical verification, significantly enhancing both the interpretability and deployment reliability of embodied intelligence systems.
XPACE通过结合异构经验学习和模拟生成,解决了通用机器人选择动作及预测动作后果的问题,提高了行为鲁棒性和任务完成率。
本文提出X-AuT框架,通过层次选择、表示对齐和跨尺度蒸馏等方法压缩语音大模型的音频编码器,减少推理成本同时保持性能。
为了解决长时任务中多技能执行难题,提出Behavior-Skill基准,通过细粒度技能实例评估视觉-语言-动作策略,提供中间状态恢复和成功条件以独立评测。
为解决机器人学习中跨实体泛化问题,提出AnyWorld框架,通过分解动作、视角和实体,将单个人类互动扩展为多样化的机器人原生体验。
This study addresses the fragmentation in embodied intelligence evaluation and the lack of empirical continuity in sim-to-real deployment by proposing a native sim-to-real tracking reduction framework alongside a five-level handover diagnostic system. By integrating MotionBench unified metrics, cross-domain identity binding, and System2-1-0 combinatorial attribution techniques, we establish a shared tracking mechanism between simulation and physical platforms. The research reproduces multi-benchmark checkpoints and achieves trajectory alignment, effectively validating fault attribution and remediation capabilities under hardware constraints. Consequently, this work establishes a complete empirical closed loop from benchmark execution to physical verification, significantly enhancing both the interpretability and deployment reliability of embodied intelligence systems.