The ARE Robot Fabricator: How to (Re)produce Robots that Can Evolve in the Real World

Matthew F. Hale, Edgar Buchanan, A. Winfield, J. Timmis, E. Hart, A. Eiben, Mike Angus, Frank Veenstra, Wei Li, Robert Woolley, Matteo De Carlo, A. Tyrrell
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引用次数: 30

Abstract

The long term vision of the Autonomous Robot Evolution (ARE) project is to create an ecosystem of both virtual and physical robots with evolving brains and bodies. One of the major challenges for such a vision is the need to construct many unique individuals without prior knowledge of what designs evolution will produce. To this end, an autonomous robot fabrication system for evolutionary robotics, the Robot Fabricator, is introduced in this paper. Evolutionary algorithms can create robot designs without direct human interaction; the Robot Fabricator will extend this to create physical copies of these designs (phenotypes) without direct human interaction. The Robot Fabricator will receive genomes and produce populations of physical individuals that can then be evaluated, allowing this to form part of the evolutionary loop, so robotic evolution is not confined to simulation and the reality gap is minimised. In order to allow the production of robot bodies with the widest variety of shapes and functional parts, individuals will be produced through 3D printing, with prefabricated actuators and sensors autonomously attached in the positions determined by evolution. This paper presents details of the proposed physical system, including a proof-of-concept demonstrator, and discusses the importance of considering the physical manufacture for evolutionary robotics.
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机器人制造者:如何(再)生产能够在现实世界中进化的机器人
自主机器人进化(Autonomous Robot Evolution, ARE)项目的长期愿景是创建一个由虚拟和物理机器人组成的生态系统,这些机器人的大脑和身体都在不断进化。这种愿景面临的主要挑战之一是,需要在没有事先了解进化将产生什么设计的情况下构建许多独特的个体。为此,本文介绍了一种面向进化机器人的自主机器人制造系统——robot Fabricator。进化算法可以在没有人类直接交互的情况下创建机器人设计;机器人制造者将扩展这一点,在没有直接人类互动的情况下创建这些设计(表型)的物理副本。机器人制造者将接收基因组并产生可进行评估的物理个体种群,从而使其成为进化循环的一部分,因此机器人的进化不仅限于模拟,而且将现实差距降至最低。为了生产形状和功能部件种类最多的机器人身体,个体将通过3D打印生产,预制的执行器和传感器将自动附着在进化决定的位置上。本文介绍了所提出的物理系统的细节,包括一个概念验证演示器,并讨论了考虑物理制造对进化机器人的重要性。
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