Theoretical framework introduces a geometric architecture for interconnected concepts, suggesting a scalable foundation for human-AI epistemic collaboration.
Knowledge is often presented as a set of isolated subjects, yet human understanding is fundamentally relational. This paper introduces the knowledge topology, a multi‑layered, interpretable structure that represents concepts, their relationships, and the larger regions and domains they form. The topology provides a geometric view of understanding: nodes hold meaning, adjacencies express relationships, clusters and regions reveal coherence, boundaries mark conceptual frontiers, and bridges connect domains. Dynamic behaviours—activation, collapse, expansion, reorganisation, tension, and novelty potential—describe how knowledge evolves over time, allowing the topology to remain a living system rather than a static archive. A formal metric layer adds analytical depth, offering quantitative measures of conceptual density, relational diversity, contradiction, and the emergence of new ideas. These metrics transform the topology from a map into an instrument for insight, revealing where knowledge is flourishing, strained, or poised for development. The topology supports a wide range of applications: synthesist learning, cross‑domain reasoning, scientific discovery, organisational knowledge mapping, privacy‑preserving personal topologies, civic understanding, and AI‑assisted exploration. It provides a shared landscape where humans and AI can navigate knowledge together, each contributing strengths the other cannot replicate. The result is not merely a representation of understanding, but a foundation for a new epistemic infrastructure—one capable of supporting individuals, organisations, and society as knowledge continues to evolve.
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Martyn Skinner (2026) studied this question.
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