Collapse, Admissibility, and the Structure of Universes
Abstract
This book develops a new eliminative ontology for mathematics, physics, and computation. It begins with a 0‑dimensional substrate containing only Degrees of Freedom (DOFs), admissibility relations, and pruning operators. From these minimal ingredients, the entire structure of universes emerges through elimination rather than construction. The central claim is simple and radical:Structure does not arise by building. It arises by pruning. The substrate cannot iterate, accumulate, extend, or refine. It can only remove inadmissible configurations until a minimal reflexively admissible region remains. This region is a nexus — the atomic fixedpoint of collapse. Nexuses seal into blackboxes; blackboxes assemble into collapse webs; collapse webs seal into macroblackboxes. The final macroblackbox is the universe’s global nexus and the threshold at which projection assigns dimensional structure. This book develops: the algebra of pruning and idempotence admissibility envelopes and scale DOF bundles and pre‑collapse structure fractal admissibility as the substrate analogue of generator rules nexus algebra and constraint exhaustion collapse‑web algebra and functoriality macroblackboxes as hierarchical sealed structures projection as the final pruning pass that produces representable mathematics and physics The substrate never constructs anything. It never iterates. It never adds structure.It only eliminates. What survives is the ontology. This work provides a unified mathematical foundation for collapse, admissibility, and reflexive structure. It does not assume geometry, continuity, or physical law; instead, it shows how these appear downstream as representational shadows of collapse residues. The book ends at the point where the substrate ends — the final collapse — and prepares the ground for Book 3, where projection, operators, dimensionality, and physical law emerge.
Fields of Study & Subjects
Philosophy and Theoretical Science
Advanced Mathematical Theories and Applications
Complex Systems and Dynamics
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 8 March 2026
- Language
- EN
- Document type
- Book