A Concept for Proactive Knowledge Construction in Self-Learning Autonomous Systems

Anthony Stein, Sven Tomforde, A. Diaconescu, J. Hähner, C. Müller-Schloer
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引用次数: 13

Abstract

The research initiative of self-improving and self-integrating systems (SISSY) emerged as response to the dramatically increasing complexity in information and communication technology. Such systems' ability of autonomous online learning has been identified as a key enabler for SISSY as well as for the broader field of self-adaptive and self-organizing (SASO) systems, since it provides the technical basis for dealing with the inherent dynamics of non-stationary environments that continually challenge these systems with unforeseen situations, disturbances, and changing goals. However, the learning progress is guided by the experiences in terms of situations the system has been exposed to so far – this reactive learning strategy naturally results in missing or inappropriate knowledge. In this paper, we define a formal system model and formulate an abstract learning task for SISSY systems. We further introduce the notion of knowledge and knowledge gaps to subsequently present a novel concept to automatically assess a system's existing knowledge base and, consequently, to proactively acquire knowledge to prepare SISSY/SASO systems for coping with disturbances and other changes that occur at runtime. By the proposed a priori construction of knowledge, we pursue the overall goal to increase the robustness as well as the learning efficiency of self-learning autonomous systems. Endowing these systems with the ability of identifying regions in their knowledge base that are not appropriately covered, strengthens their self-awareness property.
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自主学习自治系统中主动知识建构的概念
自完善和自集成系统(SISSY)的研究倡议是为了应对信息通信技术急剧增加的复杂性而出现的。这种系统自主在线学习的能力已被确定为SISSY以及更广泛的自适应和自组织(SASO)系统领域的关键推动因素,因为它为处理非固定环境的固有动态提供了技术基础,这些环境不断挑战这些系统的不可预见的情况、干扰和不断变化的目标。然而,学习过程是由系统迄今为止所接触到的情况下的经验来指导的——这种被动的学习策略自然会导致知识的缺失或不适当。本文为SISSY系统定义了形式化的系统模型,并提出了一个抽象的学习任务。我们进一步介绍了知识和知识差距的概念,随后提出了一个新的概念,以自动评估系统的现有知识库,从而主动获取知识,为SISSY/SASO系统做好准备,以应对运行时发生的干扰和其他变化。通过提出先验的知识构造,我们的总体目标是提高自主学习系统的鲁棒性和学习效率。赋予这些系统识别其知识库中未适当覆盖的区域的能力,增强了它们的自我意识属性。
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