AM-Bench: A Modular Simulation Suite and Benchmark for Aerial Manipulation Policy Learning

📅 2026-08-31
📈 Citations: 0
Influential: 0
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🤖 AI Summary
本文介绍了AM-Bench,一个用于空中操作策略学习的模块化仿真套件和基准,旨在解决动态关键领域中的独特挑战,通过评估机器人实体、控制及策略之间的交互作用。
📝 Abstract
Standardized benchmarks have played a central role in advancing robot manipulation learning, yet most focus on ground-supported manipulation systems, which limits their applicability to dynamics-critical domains such as aerial manipulation (AM). AM presents distinct system-level challenges, including environmental disturbances, coupled dynamics between the manipulator and floating base, and constrained degrees of freedom. Consequently, task performance depends jointly on robot embodiment, low-level control, and high-level policy design. We introduce AM-Bench, a modular simulation suite and benchmark for multirotor-based AM policy learning. AM-Bench includes representative embodiments spanning underactuated, fully actuated, and overactuated systems, 12 tasks across contact, transport, and constrained interaction, configurable aerodynamic disturbances and actuator saturation, standard low-level controllers, and baseline policy-learning algorithms. Unlike prior manipulation benchmarks that primarily emphasize end-to-end policy performance, AM-Bench enables system-level evaluation of how embodiment, control, disturbances, and policy choices interact. We demonstrate its diagnostic value through three simulation studies spanning high-level policies, policy--control interfaces, and embodiments, together with real-world validation of modeled effects and a hardware test of the learning pipeline.
Problem

Research questions and friction points this paper is trying to address.

aerial manipulation
dynamics-critical domains
system-level challenges
Innovation

Methods, ideas, or system contributions that make the work stand out.

aerial manipulation
modular simulation suite
system-level evaluation
policy learning
multirotor-based
Y
Yutong Wang
The Robotics Institute, School of Computer Science, Carnegie Mellon University
D
Dongjae Lee
The Robotics Institute, School of Computer Science, Carnegie Mellon University; School of Mechanical Engineering, Kyung Hee University
Xiaofeng Guo
Xiaofeng Guo
PhD student, Robotics Institute, Carnegie Mellon University
roboticsmobile manipulationtactile sensinglearning and control
Y
Yuanzhu Zhan
Department of Aerospace Engineering, Pennsylvania State University
Yufei Jiang
Yufei Jiang
Microsoft, Ph.D. from Pennsylvania State University
Software SecuritySoftware EngineeringProgram AnalysisProgramming LanguagesCloud Computing
B
Bavin Saravanan
The Robotics Institute, School of Computer Science, Carnegie Mellon University
Muqing Cao
Muqing Cao
Carnegie Mellon University, Nanyang Technological University
multi-robot systemsrobot planningdynamics and control
J
Jia Xie
The Robotics Institute, School of Computer Science, Carnegie Mellon University
C
Chenyang Mao
The Robotics Institute, School of Computer Science, Carnegie Mellon University
Sebastian Scherer
Sebastian Scherer
Associate Research Professor, Carnegie Mellon University
RoboticsUASobstacle avoidanceperceptionplanning
Junyi Geng
Junyi Geng
Assistant Professor, Pennsylvania State University
aerial roboticscooperative controltrajectory planningvision-based navigationmachine learning
Guanya Shi
Guanya Shi
Assistant Professor, CMU RI | Amazon Scholar, FAR (Frontier AI & Robotics)
RoboticsRobot LearningReinforcement LearningControlHumanoid