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Extended Metacognition for Artificially Intelligent Systems (AIS): Artificial Locus of Control and Cognitive Economy

机译:人工智能系统(AIS)的扩展元认知:控制和认知经济的人工轨迹

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Theories into human learning and cognition have led to much research into new methods and structures for Artificial Intelligence (AI) and Artificially Intelligent Systems (AIS) to learn and reason like humans. As we move toward completely autonomous AIS, the ability to provide metacognitive capabilities becomes important [Crowder and Friess 2011b] in order for the AIS to deal with entirely new situations within the environment it may find itself (e.g., deep space, deep undersea). Presented here are theories and methodologies for Constructivist Learning (CL) processes that provide the methodologies to allow completely autonomous AIS to understand, evaluate, and evolve its "Locus of Control [Watts 2003]." Presented will be the a discussion of how the use of AI learning systems, like Occam [Crowder and Carbone 2011a] and PAC learning can be combined with Cognitive Economy concepts to provide this constructivist learning process to allow a Locus of Control evolution within the AIS. The goal here is to provide the AIS with a fully autonomous, cognitive framework that would be required for autonomous environmental interaction, evolution, and control. In addition, provided are the mathematical constructs, based in Banach Spaces and Lebesque's work in Bounded Variability, that will provide the basis for Cognitive Economy structures in Artificially Intelligent Systems (AIS), allowing the AIS to operate in a "Bounded Rationality" mode, similar to humans, that will allow the autonomous system to function in new, unforeseen, and challenging environments it may find itself in. Natural intelligence filters out irrelevant information (either raw sensory perception information or higher-level conception information), and categorizes the problem representations to allow for maximum information processing with the least cognitive effort. This work is based on the use of Intelligent Software Agents (ISAs) [Crowder 2010a] which will represent the world (its tasks, goals, and information) in terms of the reward values associated with different actions when those features of its abilities are active.
机译:有关人类学习和认知的理论已导致人们对人工智能(AI)和人工智能系统(AIS)像人类一样进行学习和推理的新方法和结构进行了大量研究。随着我们朝着完全自主的AIS迈进,提供元认知能力的能力变得很重要[Crowder and Friess 2011b],以使AIS应对自己可能发现的环境中的全新情况(例如,深空,海底)。这里介绍的是建构主义学习(CL)过程的理论和方法论,这些方法论和方法论使完全自治的AIS能够理解,评估和发展其“控制场所”(Watts 2003)。将会讨论如何将Occam [Crowder and Carbone 2011a]和PAC学习之类的AI学习系统与认知经济概念相结合,以提供这种建构主义学习过程,从而在AIS中实现控制源的发展。这里的目标是为AIS提供一个完全自主的认知框架,这是自主环境交互,进化和控制所必需的。此外,提供了基于Banach空间和Lebesque的“有界变异性”的数学构造,它们将为人工智能系统(AIS)的认知经济结构提供基础,从而使AIS可以在“有界理性”模式下运行,与人类相似,这将使自治系统能够在可能会遇到的新的,不可预见的和充满挑战的环境中运行。自然情报会过滤掉不相关的信息(原始的感官知觉信息或更高级别的概念信息),并对问题进行分类表示以最少的认知努力就可以实现最大的信息处理。这项工作基于对智能软件代理(ISA)[Crowder 2010a]的使用,当其能力的那些特征处于活动状态时,它将通过与不同操作相关的奖励价值来代表世界(其任务,目标和信息)。 。

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