_Uncertainty and _ Relation - Groundworks to a Theory of Hybrid Systems. On Boundary-Architecture between Biological and Algorithmic Cognition

This paper proposes a cognitive topology to describe and differentiate human and algorithmic decision-making under structural and semantic instability. Drawing from tail-distribution theory, Shannon entropy (H), and symbolic systems, it defines a decision space spanned by two critical axes: – alpha (α), the tail exponent governing structural predictability – H, the Shannon entropy reflecting semantic openness At α ≤ 1, inference collapses: expectation fails, variance diverges, learning becomes impossible. Machines halt. And yet, humans act. Not optimally. But operatively. This paper models that paradox. Two curves define the space: one representing machine fragility, one human resilience. These functions intersect precisely - and astonishingly - at α = φ ≈ 1.618. This point marks the epistemic transfer threshold, where symbolic and interpretive cognition are structurally balanced. We introduce two fundamental constants: This is not a theory of superiority, it is a division of epistemic labor. What machines avoid, humans inhabit. What humans cannot resolve, machines optimize — until they can’t. This paper provides a topological model of that boundary — and a conceptual scaffold for hybrid systems. We define an irreducible ambiguity required for meaning, far from being just a flaw. This point is no breakdown — it is the birth of relevance.