Viewpoint Matters: Dynamically Optimizing Viewpoints with Masked Autoencoder for Visual Manipulation
Pengfei Yi, Yifan Han, Junyan Li, Litao Liu, Wenzhao Lian

TL;DR
This paper introduces MAE-Select, a framework that dynamically chooses optimal viewpoints for robotic manipulation using masked autoencoder representations, enhancing single-camera systems and sometimes outperforming multi-camera setups.
Contribution
The paper presents a novel active viewpoint selection method leveraging pre-trained masked autoencoders, enabling adaptive, label-free viewpoint optimization in robotic systems.
Findings
MAE-Select improves robotic manipulation capabilities.
It can outperform multi-camera systems in certain scenarios.
The method does not require labeled viewpoints.
Abstract
Robotic manipulation continues to be a challenge, and imitation learning (IL) enables robots to learn tasks from expert demonstrations. Current IL methods typically rely on fixed camera setups, where cameras are manually positioned in static locations, imposing significant limitations on adaptability and coverage. Inspired by human active perception, where humans dynamically adjust their viewpoint to capture the most relevant and least noisy information, we propose MAE-Select, a novel framework for active viewpoint selection in single-camera robotic systems. MAE-Select fully leverages pre-trained multi-view masked autoencoder representations and dynamically selects the next most informative viewpoint at each time chunk without requiring labeled viewpoints. Extensive experiments demonstrate that MAE-Select improves the capabilities of single-camera systems and, in some cases, even…
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Taxonomy
TopicsRobot Manipulation and Learning · Advanced Vision and Imaging · Robotics and Sensor-Based Localization
