Cognitive and action control for goal-directed reaching in a humanoid robot

J. Kralik, D. Muldrew, D. Gunasekaran, Richard D. Lange
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引用次数: 2

Abstract

Human-level performance in robotic systems remains elusive. Therefore, an important complementary approach to developing intelligent systems is to use design principles of the brain. One major design element is the combination of multiple behavioral control systems. Although hierarchical architectures have been used in robotics, they have not closely mimicked those of the primate brain (including humans). We are developing a model of cognitive and action control in the human brain that captures key findings from the cognitive neuroscience literature. Here, we focus on the classic detour problem that requires reaching around barriers. We demonstrate model performance in both simulation and with a humanoid robot and show with the simulations that all levels in the model contribute to successful reaching, provided that the agent's environment poses problems of varying complexity.
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仿人机器人目标导向到达的认知与行动控制
机器人系统中人类水平的表现仍然难以捉摸。因此,开发智能系统的一个重要补充方法是使用大脑的设计原理。一个主要的设计元素是多种行为控制系统的组合。虽然层级结构已经被用于机器人,但它们并没有很好地模仿灵长类动物(包括人类)的大脑。我们正在开发一种人类大脑认知和行动控制的模型,该模型捕捉了认知神经科学文献中的关键发现。这里,我们关注的是需要绕过障碍物的经典绕路问题。我们在仿真和人形机器人中展示了模型的性能,并通过仿真表明,如果代理的环境提出不同复杂性的问题,模型中的所有级别都有助于成功到达。
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