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Modeling incubation and restructuring for creative problem solving in robots

机译:对孵化和重组进行建模以解决机器人中的创造性问题

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摘要

Creativity represents the pinnacle of higher-level cognition, but exactly how it is achieved remains poorly understood, especially when simultaneously facing the opposing challenge of intractable complexity. The aims of the current study were (a) to examine how the brain may achieve the dual goals of creativity and complexity reduction, and (b) to begin developing higher-level cognition and creativity in robots. We address these aims by (a) modeling an example of insight problem solving and comparing it to empirical data, and (b) testing the model on a robot platform. Unlike other models, we propose a single mechanism for both creative problem solving and complexity reduction. Focusing on creativity, the computational mechanism leads to insightful problem solving by restructuring an internal belief representation based on evidence collected during an incubation period. Because insightful problem solving has been examined closely in nonhuman primates, providing detailed quantitative datasets lacking in humans, we tested the model by comparing simulations to insightful problem solving by rhesus monkeys. Results show that the proposed model accounts for both the discontinuous three stage problem-solving patterns and the spontaneous generalization to novel cases observed with the monkeys. To test the model in a physical environment, we implemented it in a vision-equipped robot, and the model solved the same insight problem from camera percepts. Our model shows how the creative brain may address the dual challenges of complex environments - finding unprecedented opportunity hidden within potentially intractable complexity and suggests that both challenges may be met by a single underlying computational mechanism. (C) 2016 Elsevier B.V. All rights reserved.
机译:创造力代表了更高层次的认知的顶峰,但是如何实现它仍然知之甚少,特别是当同时面对难以克服的复杂性这一对立挑战时。当前研究的目的是(a)研究大脑如何实现创造力和复杂性降低的双重目标,以及(b)开始在机器人中发展更高层次的认知和创造力。为了实现这些目标,我们通过(a)建模解决问题的示例并将其与经验数据进行比较,以及(b)在机器人平台上测试该模型。与其他模型不同,我们提出了一种用于解决创造性问题和降低复杂性的单一机制。专注于创造力,该计算机制通过基于潜伏期收集的证据来重构内部信念表示,从而导致深刻的问题解决。因为有洞察力的问题解决已在非人类灵长类动物中进行了仔细检查,提供了人类缺乏的详细定量数据集,所以我们通过将模拟与恒河猴的有洞察力的问题解决进行比较来测试该模型。结果表明,所提出的模型既解决了不连续的三阶段问题解决模式,又解决了自发地推广到猴子观察到的新病例的问题。为了在物理环境中测试该模型,我们在配备视觉的机器人中实现了该模型,并且该模型从相机感知角度解决了相同的见解问题。我们的模型显示了创造力大脑如何应对复杂环境的双重挑战-发现潜在的难以解决的复杂性中隐藏的前所未有的机会,并表明这两个挑战都可以通过单个基础计算机制来解决。 (C)2016 Elsevier B.V.保留所有权利。

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