AI & ML
Online Adaptation to Latent Physical Properties for Learning from Demonstration
arXiv cs.RO0 views
arXiv:2611.06118v1 Announce Type: new Abstract: Manipulating visually identical objects with different physical properties requires adapting actions based on information acquired through interaction. We address the problem of learning from demonstrations how to adapt manipulation actions, such as regrasping and changing contact locations, based on physical-property information acquired during interaction. To this end, we propose a learning-from-demonstration method that learns latent representations of physical properties needed to predict object responses and conditions a policy on online estimates of these representations. A dynamics model and object-specific latent representations are jointly learned from demonstrations that include behaviors adapting to the objects' physical properties, and the learned representations are then used to condition an imitation policy. During execution, the dynamics model and policy weights remain fixed, while the latent representation is updated based on the discrepancy between predicted and actual observations, allowing interaction with the object to inform action generation. Real-world and simulation experiments with objects whose centers of mass differ suggest that online adaptation through latent representations of physical properties can improve task success rates. However, in simulation, success rates on center-of-mass locations absent from the demonstrations remained around 30%, indicating limited adaptation to unseen physical properties. Project page: https://isri-aist.github.io/latent-dynamics-project-page/
Source:https://arxiv.org/abs/2611.06118PreviousThe Effectiveness of Sliding Mode Control for Robust Vision Stabilization under the Plant-Binding ConditionNext3D Pose Estimation in Projection Space via Pixel-level Visible Light Communication
Related posts
Autonomous ETL Pipelines for Salesforce M&A Consolidation: A Reference Framework, Jitterbit Mapping, and Reproducible Simulation Study
0arXiv cs.DB
Rate-Fidelity Control for Wide-Area Quantum Links
0arXiv cs.NI
Who Needs DRAM? We Have Fiber
0arXiv cs.NI
The Multipath Reliable Connection (MRC) Transport
0arXiv cs.NI
From Network Experience to Subscriber Retention: An Explainable AI Framework for Mobile Operators
0arXiv cs.NI
Spatial Path Superposition: A No-Cloning Perspective on MIMO-Inspired Spatial Diversity
0arXiv cs.NI