Read more: Connectivity Margin as a Boundary Distance Coordinate
Students encountering quantum mechanics for the first time routinely describe the experience as a conceptual shock. The math works, the predictions are verified — yet something feels fundamentally wrong. This article argues, through the prism of the UNNS Substrate framework, that this discomfort is not a failure of intuition. It is a regime mismatch: students are trained in a HARD structural regime and then confronted without warning by a SOFT regime system that requires an entirely different ontological language. We reframe the four canonical "paradoxes" — superposition, probability clouds, quantization, and uncertainty — as straightforward consequences of admissibility-based structure, and propose three concrete steps to close the pedagogical gap.
Read more: Detecting a Physical Boundary Without a Physical Model
Read more: Realizability Trajectories: How Voyager 2 Reveals Structural Transitions
A new manuscript establishes that the connectivity margin — the UNNS framework's central operational invariant — is not merely a heuristic quantity, but a proven geometric distance to a class boundary. Realizability space has structure: smooth hypersurfaces, measurable trajectories, and a phase landscape confirmed across six atomic elements.
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