ATHLETE: Learning Reactive Humanoid Tennis via Trajectory-Guided Motion Matching
Inspired by how humans acquire new skills by combining reusable motor experience with task-specific demonstrations, we present ATHLETE, a framework for learning reactive humanoid tennis from generic locomotion data and ordinary tennis videos.
ProofPaper ↗
Key points
- Humanoid tennis requires reactive whole-body coordination under rapidly changing ball dynamics, yet collecting task-specific motion-capture demonstrations that cover diverse approach states, contact locations, and timing conditions is costly.
- ATHLETE combines LAFAN1 locomotion with video-derived striking motions and uses Trajectory-Guided Motion Matching (TGMM) to construct diverse task-conditioned whole-body references.
- These references are transformed into a reactive policy through physics-based teacher--student learning with online DAgger distillation, followed by PPO fine-tuning for the tennis task.
- On a real humanoid robot, ATHLETE achieves forehand and backhand hit rates of $90.00%$ and $86.67%$, respectively, and enables multi-shot rallies with human players.
Sources (1)
- [1]ATHLETE: Learning Reactive Humanoid Tennis via Trajectory-Guided Motion MatchingarXiv (AI, ML, NLP, CV, robotics, multi-agent) · Oct 9, 01:25 PM
Inspired by how humans acquire new skills by combining reusable motor experience with task-specific demonstrations, we present ATHLETE, a framework for learning reactive humanoid tennis from generic locomotion data and ordinary tennis videos.
Humanoid tennis requires reactive whole-body coordination under rapidly changing ball dynamics, yet collecting task-specific motion-capture demonstrations that cover diverse approach states, contact locations, and timing conditions is costly.
Extractive summary: sentences quoted from the sources.
Before this
- Oct 9, 2026Continually Post-training Small Models via Synthetic Self-distillation
- Oct 9, 2026Hindsight Structured Advice Distillation: Steering Executor Agents with Advisors Trained on Their Failures and Task Characteristics
- Oct 9, 2026JoyInside-VLM-Agent: Product-Conditioned Multimodal Policy Learning for Embodied Agents
- Oct 9, 2026Rethinking Relative Policy Differences Transfer of On-Policy Distillation
- Oct 8, 2026ViSkill: Reinforcing VLM Agents with Evolving Visual-Native Skills
- Oct 7, 2026Enabling Preference-driven Unlearning in Few-step Distilled Text-to-Image Diffusion Models