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Ontology

This page defines the foundational ontology of Cohesion Dynamics as established in the A-series (Substrate Mechanics) and clarified in M-series papers (M1–M9). The ontology is non-interpretive and formal: it states what exists and how it behaves at the substrate level, without introducing geometric, metric, or continuum assumptions.


1. Substrate Primitives

The discrete substrate of Cohesion Dynamics consists of:

1.1 Alphabet and Locations

SymbolMeaningIntroduced In
ΣFinite alphabet of elementary informational statesPaper A
VCountable set of locationsPaper A
X : V → ΣConfiguration (mapping from locations to states)Paper A
X|ᴿRestriction of configuration X to region R ⊂ VPaper A

1.2 Constraint System

SymbolMeaningIntroduced In
𝒞Local constraint systemPaper A
Cᵢ : Σ^N(i) → {0,1}Local constraint map (0 = compatible, 1 = incompatible)Paper A
N(i) ⊂ VFinite neighbourhood for constraint CᵢPaper A
M(v;X)Local mismatch at location v for configuration XPaper A
M(R;X)Total mismatch over region RPaper A

Key property: Constraints are purely combinatorial—no geometric, algebraic, or metric structure is assumed.


2. Cohesive Informational Units (CIUs)

A Cohesive Informational Unit (CIU) is the fundamental ontological entity of Cohesion Dynamics.

ConceptDefinitionIntroduced In
CIUFinite informational structure defined by closure under admissibilityPaper A, A-OPS
IdentityA CIU’s identity is defined by its closure-stable invariants, not by arbitrary spatial boundariesA-OPS, M8

Critical clarification (A-OPS): CIUs are not arbitrarily boxed regions. They are structures that have achieved closure—stability under further admissible relaxation.


3. Operational Semantics

3.1 Mismatch

Mismatch is unassigned informational degrees of freedom—information that cannot be stably assigned to any constraint slot under current admissibility conditions (A-OPS).

  • Mismatch is not error or violation
  • Mismatch corresponds to under-determination, not instability
  • A configuration with mismatch is non-fixed, not unstable

3.2 Relaxation

Relaxation is exploratory admissibility: the process by which provisional configurations are explored within the admissible configuration space (A-OPS).

Properties:

  • Does not commit state
  • Multiple provisional representations may coexist
  • Mismatch persists as long as no closure requires assignment
  • Inherently relational—depends on which configurations overlap

3.3 Closure

Closure is the sole committing operation in Cohesion Dynamics (A-OPS).

ConceptDefinitionIntroduced In
ClosureConfiguration is closed when stable under further admissible relaxationPaper A, A-OPS
Closure-stableProperty invariant under all admissible closuresM8
LedgerSet of closure-stable constraints that persist as identity-defining featuresM8

Key principle: Only closure commits configuration. Relaxation explores; closure fixes.

3.4 Reconciliation

Reconciliation is attempted joint closure of divergent provisional configurations (A-OPS, A-NET).

ConceptDefinitionIntroduced In
Reconciliation relationExists between CIUs A and B iff mutual constraint interaction is admissible under tolerance W and closure is possibleA-NET
AvailabilityCharacterizes ease of reconciliation, typical closure delay, and robustnessA-NET

Critical clarification (A-NET): Reconciliation relations are not spatial, not persistent unless maintained, and not edges in a pre-existing graph.

3.5 Partition

Partition occurs when mismatch between configurations exceeds tolerance W, making joint closure inadmissible (Paper A, A-OPS).

  • Partition is not an independent substrate event
  • It arises as a necessary consequence when reconciliation is inadmissible
  • Results in distinct, non-interacting CIUs

4. Tolerance Window W

The tolerance window W is a finite admissibility window that constrains which configurations may participate in joint closure (Paper A, M6, A-OPS).

ConceptDefinitionIntroduced In
WFinite tolerance window bounding admissible mismatch during relaxationPaper A, M6
RoleConstrains which relaxed configurations may form closures; determines how long reconciliation attempts may persistA-OPS, M6

What W does:

  • Constrains which relaxed configurations may form closures
  • Determines how long reconciliation attempts may persist
  • Gates whether divergent relaxation paths may share a closure
  • Bounds exploratory interaction before closure or partition is forced

What W does NOT do:

  • Encode symmetry
  • Define compatibility criteria
  • Determine conserved quantities
  • Represent forces, fields, or physical constants
  • Drive structural emergence (structure arises from constraint binding and closure mechanics)

Critical clarification (M8): Tolerance governs admissibility of closure, not the behavior of features that are invariant under all admissible closures. W regulates pre-structural exploration; structure arises from constraint binding and closure mechanics.


5. Phase and Provenance

ConceptDefinitionIntroduced In
PhaseClosure-stable identity structure of a persistent CIUM4, M8
ProvenanceHistory-dependent structural information that constrains future admissible closuresM4, M9
CompatibilityConfigurations are compatible if they can undergo joint closure within tolerance WM4

6. Closure-Stable Structure (M8)

M8 establishes how continuously accumulated mismatch becomes discrete, conserved structure.

6.1 Key Distinction

Tolerance constrains admissibility of closure.
Closure-stable invariants are properties of closed configurations that persist regardless of tolerance.

6.2 Mechanisms of Closure Stability

M8 identifies three independent mechanisms by which mismatch becomes closure-stable:

  1. Symmetry alignment failure — Divergent symmetry representations cannot be reconciled
  2. Structural overload — Accumulated structural asymmetry exceeds encapsulation capacity
  3. Closure synchrony loss — Temporal misalignment prevents joint closure

6.3 Ledger-Stable Structure

Ledger (M8): The set of closure-stable constraints that:

  • Cannot be eliminated by any admissible relaxation
  • Cannot be redistributed through closure with other configurations
  • Are not subject to tolerance (properties of closure itself, not admissibility)
  • Must be tracked globally across the cohesive phase

Ledger crystallization (M8): The transition from tolerance-governed mismatch to closure-stable invariants. This transition is:

  • Abrupt and binary (not gradual)
  • Mechanism for conserved quantities, superselection sectors, and no-hair boundaries
  • Inherent in closure mechanics (not a new postulate)

7. Symmetry and Reconciliation Limits (M9)

M9 extends M8 by clarifying the role of symmetry in reconciliation.

ConceptDefinitionIntroduced In
Symmetry (realized)Closure-preserving transformations that commute on structured configurationsM9
Symmetry descentIrreversible loss of reconciliation due to incompatible symmetry-structure realizationsM9
Superselection sectorsClosure-stable separation arising from symmetry descentM9

Key principle (M9): Symmetry in Cohesion Dynamics is not abstract but structural. It is defined by which closure-preserving transformations commute on structured configurations. Once symmetry-structure realizations diverge in a non-commuting way, reconciliation becomes structurally impossible.


8. Relational Primitives (A-NET)

A-NET formalizes the network semantics implied by closure and reconciliation.

ConceptDefinitionIntroduced In
Reconciliation chainsSequences of admissible reconciliation relations between CIUsA-NET
Network invariantsMinimal relational properties that arise from closure structureA-NET

Key principle: No spacetime substrate, vacuum adjacency, or background graph is assumed. All relational structure arises solely from admissible interaction between CIUs.


9. Precedence and Admissibility

ConceptDefinitionIntroduced In
PrecedenceOrdering constraint on admissible relaxation pathsM2
Admissible pathSequence of configurations satisfying precedence and constraint requirementsPaper A, M2

10. Modes

ConceptDefinitionIntroduced In
ModeEmergent constraint eigenstructure—stable pattern of constraint satisfactionM3
Discrete modesFinitely many stable modes admitted by constraint systemM3

11. What This Ontology Does NOT Include

The following are not primitive:

❌ Spacetime or spatial embedding
❌ Continuous fields or wavefunctions
❌ Metric structure or distance
❌ Forces or energy
❌ Global time or simultaneity
❌ Probabilistic postulates
❌ Hamiltonians or Lagrangians
❌ Background vacuum or “empty space”
❌ Pre-existing graph structure

Any appearance of these concepts in derived physics (B-series) or interpretations must be justified as emergent from the substrate mechanics defined above.


12. Versioning and Status

This ontology reflects:

  • A-series: Paper A (Substrate Mechanics), A-OPS (Operational Semantics), A-NET (Network Semantics)
  • M-series: M1–M9 (Formal Mechanisms), especially M8 (Tolerance to Invariance) and M9 (Symmetry Descent)

Future updates will occur only when new formal papers extend the substrate mechanics or formal mechanisms.

Last updated: 2025, aligned with current A-series and M-series publications.