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How Catastrophe Routes Structure Instead of Destroying It

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Category: UNNS Research
UNNS Substrate Research Program · Stellar Boundary Dynamics · 2026

When Collapse Does Not
Mean Fragmentation:
Boundary Routing Across
Admissible Structural Regimes

A catastrophic physical event does not have to destroy structural admissibility. It can route a system from one admissible regime into several others — internally coherent, structurally distinct, and measurably separated in bridge geometry. The Stellar Boundary Dynamics corpus provides the first structural test of that idea.
Boundary Routing 10/10 Full-Percolation A→B Contact · C Branching Catastrophic Admissibility ABC Tri-Domain Bridge Pilot Corpus STRUC-PERC-I v2.5.0 2 Archetypes
Instrument: STRUC-PERC-I v2.5.0 10 phase-level evaluations · 3 observational layers · 3 bridge runs Phases: A — pre-collapse profiles · B — light curves · C — spectral evolution Status: Pilot manuscript · 2026
Manuscript
Stellar Boundary Dynamics: Catastrophic Transition as Routing Between Admissible Structural Regimes
Analytics
Corpus Analytics Dashboard — Full interactive analysis
Corpus
Full pipeline archive — raw data, ladders, bridge comparisons, scripts

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How Physical Systems Find Their Place in Admissibility Space

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Category: UNNS Research
UNNS Substrate Research Program · Synthesis · 2026

The Geometry of Realizability

A new framework reveals that helium, the cosmic microwave background, neutrino detectors, and Voyager's journey through the heliosphere all reveal recurring admissibility-basin geometry — not because they share any physics, but because they occupy the same structural basins inside the admissibility manifold ℳadm.
Persistence Geometry Basin Co-Occupancy 14,000+ Evaluations 5D Admissibility Vector Adversarial Falsification Zero Hard Violations 5 Physical Domains 650 Adversarial Ladders
Instruments: STRUC-I v1.0.4 · STRUC-PERC-I v2.5.0 · CLE v2.0.0 · PASP Field Generator Domains: helium · CMB · neutrino detector · protein MSM · Voyager trajectory Status: Synthesis manuscript · 2026
Primary Manuscript
Canonical Structures in Admissibility Space: Persistence Geometry and Empirical Basin Occupancy Across Physical Systems
CLE v2.0.0 Corpus
Canonical Ladder Engine v2.0.0 — Full Deformation-Field Corpus

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How Admissible Structures Form Connected Worlds

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Category: UNNS Research
UNNS Substrate Research Program · 2026

The Structural Bridges
That Hold Reality Together

A new mathematical framework reveals that admissible physical configurations do not exist in isolation — they organize into connected basins, bridged by sparse continuity corridors, with fragmentation localized to single stitching junctions. Realizability space, it turns out, has genuine internal topology.

↓ READ THE MANUSCRIPT Corpus Analysis → Neutrino Corpus →
INSTRUMENT STRUC-PERC-I v2.4.0–v2.5.0 · CORPUS 760 ladders across 3 domains · STATUS Foundational theory manuscript · 2026

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The Hidden Rule Behind Structural Survival

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Category: UNNS Research
UNNS Substrate Research Program · Foundational Theory · 2026

The Margin-Confinement Law:
Why Coherent Structures Never Truly Fragment

Across supernovae, Voyager transport, nuclear events, seismic systems, and neutrino detector corpora, the same structural pattern repeatedly emerged: systems approached fragmentation asymptotically while preserving hidden relational continuity. The Margin-Confinement framework proposes that admissible structures do not truly cross realizability boundaries. Instead, apparent collapse may reflect projection-induced fragmentation, while latent coherence remains structurally recoverable under locality-preserving transforms.
Non-Crossability FCC Regime Δ-Lifting RISC Latent Continuity 15,401 Evaluations 0 Genuine Crossings
Instruments: STRUC-I v1.0.4 · STRUC-PERC-I v2.4.0–v2.5.0 Domains: 14 physical · 1 biological · 1 astrophysical · 1 detector reconstruction Status: Foundational theory manuscript · 2026
Primary Manuscript
The Margin-Confinement Law: Structural Non-Crossability in Admissibility Space

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The Edge of Collapse: How Coherence Survives Extreme Physical Forcing

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Category: UNNS Research
UNNS Substrate Research Program · 2026 · Extreme Physical Transitions

From Fragmentation
to Coherence

The hidden geometry of extreme systems — how supernovae, nuclear explosions, seismic ruptures, particle collisions, and Voyager's boundary crossing all share the same structural signature at the edge of realizability.
Forced Coherent Collapse Margin Collapse Hypothesis 3 RISC Mechanisms 97.4% FULL · Voyager Unified TD Scaling Law 5 Physical Domains 29 NK Station-Events · Zero HARD
Instrument: STRUC-PERC-I v2.4.0–v2.5.0 Evaluations: 48 ladder + 29 NK station-events + 4,128 Voyager windows Status: Foundational cross-domain manuscript Year: 2026

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