Benchmarking Structured Policies and Policy Optimization for Real-World Dexterous Object Manipulation
Niklas Funk, Charles Schaff, Rishabh Madan, Takuma Yoneda, Julen Urain, De Jesus, Joe Watson, Ethan K. Gordon, Felix Widmaier, Stefan Bauer,, Siddhartha S. Srinivasa, Tapomayukh Bhattacharjee, Matthew R. Walter, Jan, Peters

TL;DR
This paper introduces benchmarks for dexterous manipulation using the TriFinger robotic platform, validating structured policies that combine classical robotics and policy optimization for improved sample efficiency and reliability.
Contribution
It provides a comprehensive benchmark and analysis of structured policies for real-world dexterous manipulation, including validation on simulation and physical hardware.
Findings
Structured policies improve sample efficiency and reliability.
Validation across simulation and real hardware confirms robustness.
Ablation studies highlight key features for performance.
Abstract
Dexterous manipulation is a challenging and important problem in robotics. While data-driven methods are a promising approach, current benchmarks require simulation or extensive engineering support due to the sample inefficiency of popular methods. We present benchmarks for the TriFinger system, an open-source robotic platform for dexterous manipulation and the focus of the 2020 Real Robot Challenge. The benchmarked methods, which were successful in the challenge, can be generally described as structured policies, as they combine elements of classical robotics and modern policy optimization. This inclusion of inductive biases facilitates sample efficiency, interpretability, reliability and high performance. The key aspects of this benchmarking is validation of the baselines across both simulation and the real system, thorough ablation study over the core features of each solution, and a…
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