Collapse-Web: A Mathematical Constraint Organism

Collapse-Web: A Mathematical Constraint Organism This work presents a constraint-field organism whose behaviour is defined by asingle mathematical chain linking structural inputs to viability outputs. Arraysspecify functional families, each generating a corresponding system of ordinarydifferential equations. These ODE families determine the subordinate variablesS, F , σ, which together form the compound viability vector Ω.The admissible region of Ω is the envelope of the organism: the space inwhich all functional families yield real, stable solutions. Projection, mass, andcollapse are not independent phenomena but local expressions of Ω within thisenvelope. Collapse is defined as the viability-pruning operation that retires anybranch whose ODE families lose real solutions. The organism therefore exhibitsinverse combinatorics: increasing structural complexity contracts the admissi-ble outcome space rather than expanding it. This Ω-bounded combinatorialregime produces a stable, self-regulating mathematical organism whose dynam-ics arise entirely from constraint geometry rather than generative expansion.The totality of the system is the chain itself; all behaviours emerge from itsstructure.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-11-11
DOI
https://doi.org/10.5281/zenodo.24143630
Primary Topic
Complex Systems and Dynamics
Type
article
Field-Weighted Citation Impact
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article

Collapse-Web: A Mathematical Constraint Organism

Jeremy Spencer
Zenodo (CERN European Organization for Nuclear Research)
Complex Systems and Dynamics
article

Collapse-Web: A Mathematical Constraint Organism

Jeremy Spencer
article en

Abstract

Collapse-Web: A Mathematical Constraint Organism This work presents a constraint-field organism whose behaviour is defined by asingle mathematical chain linking structural inputs to viability outputs. Arraysspecify functional families, each generating a corresponding system of ordinarydifferential equations. These ODE families determine the subordinate variablesS, F , σ, which together form the compound viability vector Ω.The admissible region of Ω is the envelope of the organism: the space inwhich all functional families yield real, stable solutions. Projection, mass, andcollapse are not independent phenomena but local expressions of Ω within thisenvelope. Collapse is defined as the viability-pruning operation that retires anybranch whose ODE families lose real solutions. The organism therefore exhibitsinverse combinatorics: increasing structural complexity contracts the admissi-ble outcome space rather than expanding it. This Ω-bounded combinatorialregime produces a stable, self-regulating mathematical organism whose dynam-ics arise entirely from constraint geometry rather than generative expansion.The totality of the system is the chain itself; all behaviours emerge from itsstructure.

Zenodo (CERN European Organization for Nuclear Research)
Complex Systems and Dynamics
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