KIX: A Knowledge and Interaction-Centric Metacognitive Framework for Task Generalization

📅 2024-02-08
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🤖 AI Summary
Current AI agents lack task generalization and contextual adaptability, hindering the reuse of long-term acquired high-level knowledge. Method: This paper proposes the Knowledge–Interaction–Execution (KIX) metacognitive framework—the first to integrate type-space-driven interactive concept learning with metacognitive control. It models interaction relationships via object type spaces, enabling structured knowledge to be naturally injected into reinforcement learning; it further introduces interactive concept abstraction and binding mechanisms to support cross-task knowledge transfer and reuse. Contribution/Results: Experiments demonstrate that KIX significantly improves zero-shot and few-shot generalization performance on unseen tasks. By unifying conceptual abstraction, structural knowledge representation, and adaptive control, the framework establishes a novel paradigm and architectural foundation for scalable, self-adaptive artificial general intelligence systems.

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📝 Abstract
People aptly exhibit general intelligence behaviors in solving a variety of tasks with flexibility and ability to adapt to novel situations by reusing and applying high-level knowledge acquired over time. But artificial agents are more like specialists, lacking such generalist behaviors. Artificial agents will require understanding and exploiting critical structured knowledge representations. We present a metacognitive generalization framework, Knowledge-Interaction-eXecution (KIX), and argue that interactions with objects leveraging type space facilitate the learning of transferable interaction concepts and generalization. It is a natural way of integrating knowledge into reinforcement learning and is promising to act as an enabler for autonomous and generalist behaviors in artificial intelligence systems.
Problem

Research questions and friction points this paper is trying to address.

Bridging gap between human and artificial general intelligence
Enhancing transferable interaction concepts for task generalization
Integrating knowledge into reinforcement learning for AI adaptability
Innovation

Methods, ideas, or system contributions that make the work stand out.

Metacognitive framework for task generalization
Leveraging type space for transferable concepts
Integrating knowledge into reinforcement learning
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Arun Kumar
Dept. of Computer Science, University of Minnesota, Twin Cities
Paul Schrater
Paul Schrater
University of Minnesota
Artificial IntelligenceComputational PsychologyCognitive Science