MAVP: Map-Aware Visuomotor Policies for Mobile Manipulation
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Abstract (arXiv)
Successful mobile manipulation requires coordinated base and arm motion while maintaining accurate spatial positioning. However, demonstration-trained policies can struggle to realise the intended base motion reliably, leading to spatial misalignment and subsequent manipulation failures. We present MAVP (Map-Aware Visuomotor Policies), a framework that improves execution reliability by predicting explicit base-pose targets and tracking them using localisation feedback. MAVP reconstructs a static map from teleoperated demonstrations and expresses demonstrated base trajectories in a shared map frame, providing consistent spatial supervision across demonstrations. At execution time, the policy receives RGB observations, joint states, and the robot's current map-frame base pose, and jointly predicts target base poses, arm actions, and gripper actions. A low-level controller tracks the predicted base targets using feedforward motion and pose error feedback, enabling correction of execution deviations. We additionally use pose-noise augmentation during training to improve robustness to errors in the policy's pose input. Across six real-world manipulation tasks and three policy families, MAVP achieves higher task success rates than unanchored velocity control in all tasks. Videos and additional results are available at https://123qwedsa123.github.io/mavp/.
Key facts. No citing papers in the map yet (data through 7 Oct 2026). Builds on 24 of its 38 references that are in the map. First posted on arXiv 22 Sep 2026.
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References · 24
- 2022Scalable Diffusion Models with Transformerscited by 5,931
- 2022Flow Matching for Generative Modelingcited by 5,426
- 2023Diffusion Policy: Visuomotor Policy Learning via Action Diffusioncited by 2,730
- 2023Learning Fine-Grained Bimanual Manipulation with Low-Cost Hardwarecited by 1,490
- 2017SuperPoint: Self-Supervised Interest Point Detection and Descriptioncited by 1,313
- 2023LightGlue: Local Feature Matching at Light Speedcited by 583
- 2018From Coarse to Fine: Robust Hierarchical Localization at Large Scalecited by 556
- 2017DART: Noise Injection for Robust Imitation Learningcited by 187
- 2018DynaSLAM: Tracking, Mapping and Inpainting in Dynamic Scenescited by 130
- 2024UMI on Legs: Making Manipulation Policies Mobile with Manipulation-Centric Whole-body Controllerscited by 67
- 2023Waypoint-Based Imitation Learning for Robotic Manipulationcited by 59
- 2023HYDRA: Hybrid Robot Actions for Imitation Learningcited by 54
12 more
- 2022Multi-skill Mobile Manipulation for Object Rearrangementcited by 46
- 2020Spatial Action Maps for Mobile Manipulationcited by 31
- 2025VGGT4D: Mining Motion Cues in Visual Geometry Transformers for 4D Scene Reconstructioncited by 26
- 2024RoMo: Robust Motion Segmentation Improves Structure from Motioncited by 20
- 2023Instructing Robots by Sketching: Learning from Demonstration via Probabilistic Diagrammatic Teachingcited by 14
- 2026HoMMI: Learning Whole-Body Mobile Manipulation from Human Demonstrationscited by 12
- 2025Mobi-π: Mobilizing Your Robot Learning Policycited by 9
- 2025HoMeR: Learning In-the-Wild Mobile Manipulation via Hybrid Imitation and Whole-Body Controlcited by 8
- 2025Seeing the Bigger Picture: 3D Latent Mapping for Mobile Manipulation Policy Learningcited by 4
- 2025cuVSLAM: CUDA accelerated visual odometry and mappingcited by 3
- 2024Teaching Robots Where To Go And How To Act With Human Sketches via Spatial Diagrammatic Instructionscited by 2
- 2025Bi-Manual Joint Camera Calibration and Scene Representationcited by 2
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