CYROSep 19, 2016

Toward a Science of Autonomy for Physical Systems: Paths

arXiv:1609.05814v11 citations
Originality Synthesis-oriented
AI Analysis

This work tackles the problem of creating robust autonomy for physical systems in domains like healthcare and manufacturing, but it is incremental as it builds on existing research directions without presenting new results.

The paper addresses the challenge of developing reliable autonomous physical systems (APS) that can independently achieve goals while respecting rules, using complex information from various sources. It outlines three research directions—Deep Reinforcement Learning, Human-Robot Interaction, and Cloud Robotics—as promising paths to enable APS to learn necessary physical and information skills.

An Autonomous Physical System (APS) will be expected to reliably and independently evaluate, execute, and achieve goals while respecting surrounding rules, laws, or conventions. In doing so, an APS must rely on a broad spectrum of dynamic, complex, and often imprecise information about its surroundings, the task it is to perform, and its own sensors and actuators. For example, cleaning in a home or commercial setting requires the ability to perceive, grasp, and manipulate many physical objects, the ability to reliably perform a variety of subtasks such as washing, folding, and stacking, and knowledge about local conventions such as how objects are classified and where they should be stored. The information required for reliable autonomous operation may come from external sources and from the robot's own sensor observations or in the form of direct instruction by a trainer. Similar considerations apply across many domains - construction, manufacturing, in-home assistance, and healthcare. For example, surgeons spend many years learning about physiology and anatomy before they touch a patient. They then perform roughly 1000 surgeries under the tutelage of an expert surgeon, and they practice basic maneuvers such as suture tying thousands of times outside the operating room. All of these elements come together to achieve expertise at this task. Endowing a system with robust autonomy by traditional programming methods has thus far had limited success. Several promising new paths to acquiring and processing such data are emerging. This white paper outlines three promising research directions for enabling an APS to learn the physical and information skills necessary to perform tasks with independence and flexibility: Deep Reinforcement Learning, Human-Robot Interaction, and Cloud Robotics.

Foundations

The foundational work for this paper's niche, ranked by how specifically the neighbourhood builds on it — not by global fame.

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