DFT Expert Review

Expert Review Packet

This packet is designed for external readers who want to evaluate Digital Fabrica Theory without relying on promotional language.

It separates:

  • definitions;
  • architecture models;
  • formalization targets;
  • applied evidence candidates;
  • source documents;
  • citation maintenance;
  • open review questions.
Download Markdown review template
Review boundary: The packet does not claim peer review, certification, external validation, or completed proof status. It is a structured entry point for scrutiny. Provenance is not validation, nor does it imply scientific acceptance.
Source Corpus Absorption: The DFT review packet actively absorbs foundational documents (e.g., ASCII codex, 14D lattice). This absorption strictly separates source claims from validated public evidence. All source texts undergo rigorous extraction and boundary review before integration.

Expert review path

How to review the DFT public corpus

Follow the review path from concept to formalization target, applied evidence, bibliography, citation health, and expert packet.

Publication status

Provenance is not validation

This table classifies public documents by their current role in the research corpus. A public record, archive, DOI, or whitepaper provides traceability; it does not automatically imply peer review, endorsement, certification, or scientific acceptance.

DocumentStatusUseBoundary
Digital Fabrica Theory WhitepaperWhitepaper draftPrimary theory and architecture source for DFT terminology, stack structure, and formalization targets.Authorial whitepaper. Do not treat as peer-reviewed validation or certified production standard.
Digital Fabrica Theory: A Foundational Science of Infinite Digital SystemsSource documentDeep source material for theory language, mathematical ambitions, applied systems, and ecosystem framing.High-risk source. Extract definitions and architecture only after claim-boundary review.
GILC Whitepaper v3.0Institutional draftInstitutional source for scroll architecture, CodexStation, validator governance, semantic infrastructure, and public-benefit framing.Institutional draft. Do not imply state accreditation, external approval, or peer validation unless separately documented.
New Millennium Frontier WhitepaperWhitepaper draftSource for frontier-science coordination, scroll verification, validator review, challenge registry, and milestone incentives.Coordination framework. Does not replace academia, journals, prize institutions, or independent peer review.
The Science of Fabric Reality BriefPublic compendiumIntegrative map of Ivan Pasev’s fabric-reality, invariance, recursion, DFT, FQFT, and systems-theory program.Compendium and orientation document. Not universal acceptance or peer validation.
UKC:PHYSICA OverviewSource documentPhysics-facing context for observables, transformations, invariants, scale discipline, falsifiability, and extension quarantine.Research context. DFT/FQFT/KP/TFR extensions remain proposed unless independently formalized and reviewed.

Review Method

The DFT public review path separates five reviewer tracks:

  1. Scientific — definitions, primitives, formalization targets.
  2. Technical — architecture layers, implementation model, system boundaries.
  3. Institutional — governance, accreditation, public claims, legal boundaries.
  4. Implementation — applied evidence, operational status, missing evidence.
  5. Publication — DOI, archive, citation health, review/provenance distinction.

The review packet is not a claim of approval.
It is a structured method for finding what is defined, what is evidenced, what is missing, and what should be reviewed next.

Public reviewer checklist

How to inspect DFT

This checklist gives reviewers a structured path through theory, architecture, institutional boundaries, implementation evidence, and publication provenance.

Are DFT primitives defined precisely enough to become formal objects?

scientific

Pass condition

Core terms have definitions, related terms, and formalization boundaries.

Fail signal

Definitions remain metaphorical without primitives, assumptions, or review path.

Are DFDF, FNS, IDFF, and SIDS separable, inspectable architecture layers?

technical

Pass condition

Each layer has role, boundary, and implementation evidence requirements.

Fail signal

Architecture layers collapse into vague branding or unsupported protocol claims.

Are institutional claims separated from accreditation, certification, and external approval?

institutional

Pass condition

Public pages avoid implied accreditation or external validation.

Fail signal

Publication or institutional language implies approval without evidence.

Do implementations clearly state available evidence and missing evidence?

implementation

Pass condition

Implementation pages include evidence boundaries and do not validate full DFT.

Fail signal

Implementation existence is treated as proof or certification of the theory.

Are DOI, archive, citation health, and publication status presented as provenance rather than validation?

publication

Pass condition

Publication records distinguish provenance, DOI/archive, and review status.

Fail signal

DOI or archive records imply peer review or scientific acceptance.

Evidence maturity

From mention to external review

Evidence maturity scores what each DFT record may safely claim today and what evidence is needed before stronger claims can be made.

M0 — Mentioned

Score 0

The entity, concept, or route is named, but has not yet been supported by current source evidence.

M1 — Source-bounded

Score 1

The claim is supported by an internal or public source record and has clear validation boundaries.

M2 — Live-site supported

Score 2

The claim is supported by reachable public route evidence, title, metadata, or page text.

M3 — Implementation candidate

Score 3

The claim is connected to a concrete implementation candidate with an evidence table and missing-evidence boundary.

M4 — Operational evidence

Score 4

The claim is supported by published operational evidence with scope, date, responsible entity, and limitations.

M5 — External review

Score 5

The claim is supported by independent review, certification, peer review, audit, or formal external evaluation within a clearly stated scope.

RecordCurrent levelReasonNext evidence needed
Digital Fabrica TheoryM1-source-boundedDFT has public theory, ontology, architecture, and source-boundary routes, but not external validation.
  • canonical public source page
  • DOI/archive records
  • formalization route links
DFT Architecture StackM1-source-boundedDFDF/FNS/IDFF/SIDS are now publicly modeled and diagrammed, but not formal specifications or certified standards.
  • technical architecture packets
  • implementation conformance checklist
  • layer-by-layer specification
YellowChainM1-source-boundedYellowChain is classified as a strategic governance/identity fabric, but current public route evidence remains incomplete.
  • live domain capture
  • governance fabric page
  • DID fabric evidence boundary
New Millennium FrontierM2-live-site-supportedNMF has live-site support and is framed as a verifiable-science coordination layer, while validation boundaries remain explicit.
  • challenge registry evidence
  • validator workflow evidence
  • publication review workflow evidence
CitizenSolarM2-live-site-supportedCitizenSolar has live public positioning as an energy infrastructure domain, but operational telemetry and deployment evidence remain pending.
  • BESS architecture packet
  • telemetry evidence boundary
  • Community Energy Bank implementation status
CySysM1-source-boundedCySys is classified as enterprise cybernetic infrastructure/advisory arm, but live service/case evidence needs capture.
  • live route inspection
  • service model route
  • case/evidence route
StitchiaM3-implementation-candidateStitchia is classified as a concrete implementation candidate, with evidence boundaries and missing technical/compliance review items.
  • technical architecture packet
  • operational status
  • security/compliance boundary
  • case evidence
Global Freight ExchangeM3-implementation-candidateGFE is classified as a concrete logistics implementation candidate, with explicit marketplace/settlement overclaim boundaries.
  • marketplace status evidence
  • transaction evidence boundary
  • legal/settlement model
  • technical architecture packet

Cross-Domain Review

The DFT review packet now spans six layers:

  1. Theory primitives.
  2. Architecture stack.
  3. Critical applications.
  4. Implementations.
  5. Evidence ledger.
  6. Open review gaps.

Reviewers should not treat application or implementation existence as validation of the full theory. Each record supports only the scoped claim listed in the evidence ledger.

Reviewer Questions

A reviewer should ask:

  • Are the theory terms defined consistently?
  • Are architecture layers separable and testable?
  • Are applications distinguished from implementations?
  • Is each domain claim supported by evidence?
  • Are missing evidence items visible?
  • Are prohibited claims absent?
  • Are DOI/archive/citation records clearly maintained?

Ecosystem summary

DFT public spine

This mobile summary mirrors the ecosystem graph so the structure remains readable without requiring canvas interaction.

Theory

  • Fabric
  • Fiber
  • Binding
  • Invariant
  • Evidence

Architecture

  • DFDF
  • FNS
  • IDFF
  • SIDS

Critical Applications

  • YellowChain
  • NMF
  • CitizenSolar
  • CySys

Implementations

  • Stitchia
  • Global Freight Exchange

Review Layer

  • Citation Health
  • Evidence Ledger
  • Review Packet
  • Submission Kit

Cross-domain evidence ledger

What each domain supports — and what remains open

This ledger separates theory sources, architecture models, critical applications, implementations, publication records, domain evidence, and review gaps. Evidence supports scoped claims only; it does not validate the entire theory by itself.

RecordClassStatusSupportsMissingBoundary
Digital Fabrica Theorytheory-sourcesource-bounded
  • root theory
  • fabric model
  • formalization program
  • external peer review
  • formal proof archive
  • independent validation report
DFT is presented as a source-bounded research and architecture framework, not an externally validated universal theory.
DFT Architecture Stackarchitecture-modelsource-bounded
  • DFDF
  • FNS
  • IDFF
  • SIDS
  • formal specification
  • implementation conformance tests
  • independent security review
The stack is an architecture model and formalization target, not a certified standard.
YellowChainyellowchain.orgcritical-applicationevidence-needed
  • governance fabric
  • identity fabric
  • resource-ledger fabric
  • current live-domain evidence
  • DID implementation evidence
  • resource-ledger operational evidence
  • governance protocol specification
YellowChain is a strategic critical application. Operational DID, ledger, and governance claims require separate evidence.
New Millennium Frontiernewmillenniumfrontier.orgcritical-applicationlive-site-supported
  • verifiable science coordination
  • challenge registry
  • publication provenance
  • review workflows
  • validator workflow evidence
  • challenge registry evidence
  • publication process evidence
  • external review record
NMF is a coordination layer. It does not replace universities, journals, or external peer review.
CitizenSolarcitizen.solarcritical-applicationlive-site-supported
  • storage-first energy fabric
  • telemetry evidence
  • Community Energy Bank
  • BESS orchestration
  • operational telemetry dataset
  • grid/market participation evidence
  • performance evidence
  • regulatory boundary evidence
CitizenSolar is an energy infrastructure application domain. Operational and performance claims require published evidence.
CySyscy-systems.comcritical-applicationevidence-needed
  • enterprise cybernetics
  • knowledge fabric
  • governance fabric
  • execution fabric
  • current live-domain evidence
  • service model evidence
  • case evidence
  • deployment evidence
CySys is the enterprise infrastructure and advisory arm. Deployment, adoption, and audited infrastructure claims require source evidence.
Stitchiastitchia.xyzimplementationimplementation-candidate
  • compliance-first DPI
  • cfDAO workflows
  • organization governance
  • technical architecture packet
  • compliance review
  • security review
  • operational status
Stitchia is an implementation candidate, not certified compliance infrastructure unless separately documented.
Global Freight Exchangefreight-exchange.orgimplementationimplementation-candidate
  • logistics fabric
  • freight capacity coordination
  • supply-chain evidence
  • marketplace operating evidence
  • transaction evidence
  • legal/settlement boundary
  • carrier/user evidence
GFE is a logistics implementation candidate. It must not imply regulated exchange status, market scale, or live settlement without evidence.

Review gaps

What must be closed next

Review gaps identify what remains incomplete before stronger claims can be made. They are part of the evidence discipline of DFT.

Theory / Architecture

P0

DFT primitives require formal specification beyond public definitions.

Why it matters: Formal definitions are needed before theorem claims, conformance tests, or proof obligations can be evaluated.

YellowChain

P0

Governance, DID, and resource-ledger evidence need current public documentation.

Why it matters: YellowChain is a strategic critical application but cannot be treated as operational implementation evidence without updated records.

CySys

P0

Enterprise service model and deployment evidence need clearer separation.

Why it matters: CySys must distinguish advisory positioning, implementation candidates, and deployed evidence.

Implementations

P1

Stitchia and GFE need technical architecture packets.

Why it matters: Implementation candidates become stronger evidence only when architecture, status, and review boundaries are explicit.

Publication / Citation Health

P1

Core whitepapers need verified DOI/archive records.

Why it matters: DOI and archive records improve provenance and preservation while preserving validation boundaries.

14D tensor ontology

A semantic map for fabric architecture

The 14D ontology organizes DFT architecture into spatial, topological, governance, economic, and cross-dimensional data bands. It is used as a semantic model for systems design and formalization.

DimensionsBandTensor classRoleBoundary
1–3Spatial InterfaceMetric Tensor / Position VectorModels physical location, virtual node placement, UI/UX anchoring, and spatial mapping.Architecture mapping only unless tied to a measured physical system.
4–7Topological NetworkLaplacian / Adjacency / Spectral GapModels graph connectivity, contract relations, resilience, and topology.Claims of security or resilience require implementation-specific evidence.
8–10Governance and ComplianceModular Congruence / Ethical Functor / Knot InvariantModels policy alignment, compliance constraints, and governance transformations.Not a certification or legal compliance claim without external review.
11–13Economic and Resource LogicRiemann Zeta / Modular Theta / Partition FunctionModels token supply, voting weight, resource allocation, and valuation structures.Economic formulas are design models unless backed by deployment data.
14Cross-Dimensional Data GradientGradient TensorModels cross-domain data interaction among spatial, digital, governance, and economic states.Formalization target requiring specification and review.
Formalization Gap: Fiber metrics and tensor models are currently in a formalization gap. They require mathematical scrutiny, practical implementation feedback, and security auditing before they can advance from theoretical targets to validated architectural patterns.
mathematical-logicexpert packet

Mathematical Logic and Formalization Packet

Audience: mathematical logicians, proof engineers, Lean / Coq / HoTT formalization reviewers

Review Focus

  • well-foundedness assumptions
  • ordinal stabilization claims
  • lemma dependencies
  • proof obligation completeness
  • Gödelian boundary language

Minimum Questions

  • Are the state space and transition relation explicitly definable?
  • Is the ordinal ranking non-circular?
  • Which lemmas are missing before mechanization?
  • Where does DFT risk overclaiming logical completeness?

Boundary: This packet requests expert critique of formalization targets. It does not imply completed proof or peer review.

Prepare review email
graph-theoryexpert packet

Graph Theory and Robust Routing Packet

Audience: graph theorists, network scientists, distributed-systems topology reviewers

Review Focus

  • Ramanujan/expander graph usage
  • spectral gap interpretation
  • routing robustness
  • partition-resilience assumptions
  • separation from cryptographic claims

Minimum Questions

  • Which topology claims follow from established expander properties?
  • Which DFT routing claims require simulation?
  • Are conductance/security terms separated correctly?
  • What adversarial graph model is needed?

Boundary: This packet concerns topology and robustness modeling only. It does not validate cryptographic or production security claims.

Prepare review email
cryptographyexpert packet

Cryptography and Post-Quantum Alignment Packet

Audience: cryptographers, security auditors, post-quantum cryptography specialists

Review Focus

  • post-quantum-aligned language
  • threat model requirements
  • algorithm selection
  • key management
  • audit boundary

Minimum Questions

  • Does public wording imply certification?
  • Which algorithms must be specified before security claims?
  • What threat model is required?
  • Which implementation artifacts are missing?

Boundary: This packet requests security critique. It does not create or imply a completed cryptographic audit.

Prepare review email
systems-architectureexpert packet

Systems Architecture and Implementation Packet

Audience: systems architects, distributed systems engineers, platform engineers, implementation reviewers

Review Focus

  • DFDF → FNS → IDFF → SIDS stack
  • interface boundaries
  • schema evolution
  • runtime gates
  • rollback/failure semantics

Minimum Questions

  • Are layer interfaces sufficiently defined?
  • Which implementation contracts are missing?
  • What evidence is required for prototype readiness?
  • Which claims should remain architecture-only?

Boundary: This packet concerns implementation readiness. It does not imply production deployment.

Prepare review email
legal-complianceexpert packet

Legal, Compliance, and Public Claim Boundary Packet

Audience: technology lawyers, compliance reviewers, IP advisors, public-claims risk reviewers

Review Focus

  • public claim safety
  • IP/trademark boundaries
  • financial/token wording
  • compliance wording
  • review and disclaimer adequacy

Minimum Questions

  • Which claims require legal qualification?
  • Is financial/token language safely bounded?
  • Are application-readiness labels conservative enough?
  • What public disclaimers are missing?

Boundary: This packet is for legal/compliance review intake only. It is not legal advice and does not establish compliance approval.

Prepare review email

Claim-Level Source Trace

Expert Packet Claim Trace

Major claims on this page are mapped to source routes, bibliography records, formalization targets, review records, and public boundaries.

Expert Review Packet Boundary

Expert packets provide structured review prompts and mailto-based submission without pretending to implement a peer-review portal.

Sources: dft-whitepaper-2026
Bibliography: None listed
Formalization: None listed
Review: None listed

Boundary: Submission path only. A submitted review is not endorsement, certification, peer review, regulatory approval, or security audit.

Reviewer Export

The review packet can now be read through five export tracks:

  1. Scientific review.
  2. Technical architecture review.
  3. Institutional boundary review.
  4. Implementation evidence review.
  5. Publication and citation provenance review.

Each export track is source-bounded.
No packet implies approval by itself.

Reviewer export packet

Source-bounded materials for external inspection

These packets organize DFT materials for scientific, technical, institutional, implementation, and publication review. They are prepared for inspection and do not imply approval, peer review, certification, or external validation.

DFT Expert Review Packet

general-expert

ready-for-local-review

Provide a structured inspection path across DFT theory, architecture, applications, implementations, evidence maturity, and review gaps.

Includes

  • theory primitives
  • architecture stack
  • ecosystem graph
  • cross-domain evidence ledger
  • review gap table
  • reviewer checklist
  • evidence maturity table

Must not imply

  • approval
  • certification
  • peer review
  • external validation
  • scientific acceptance

Scientific Review Sheet

scientific-reviewer

needs-source-completion

Help scientific reviewers inspect definitions, primitives, formalization targets, assumptions, and proof obligations.

Includes

  • DFT ontology
  • fabric primitive model
  • formalization targets
  • open proof obligations
  • claim boundary notes

Must not imply

  • completed proof
  • accepted theorem
  • Clay problem validation
  • mathematical acceptance

Technical Architecture Review Sheet

technical-reviewer

ready-for-local-review

Help technical reviewers inspect DFDF, FNS, IDFF, SIDS, interoperability boundaries, and implementation-readiness gaps.

Includes

  • four-layer architecture stack
  • fabric primitive model
  • implementation evidence model
  • conformance gaps
  • architecture review questions

Must not imply

  • certified standard
  • audited protocol
  • security approval
  • production guarantee

Implementation Review Sheet

implementation-reviewer

ready-for-local-review

Help implementation reviewers inspect Stitchia, GFE, and other implementation candidates without treating them as proof of DFT.

Includes

  • implementation evidence model
  • available evidence
  • missing evidence
  • maturity level
  • prohibited claims

Must not imply

  • operational status
  • regulated approval
  • market dominance
  • external validation of DFT

Publication and Citation Provenance Sheet

publication-reviewer

needs-source-completion

Help publication reviewers inspect DOI/archive state, citation health, publication status, provenance boundaries, and missing records.

Includes

  • publication URL status
  • DOI/archive plan
  • citation health
  • provenance boundary
  • missing records

Must not imply

  • peer review from DOI
  • scientific validation from archive
  • certification from publication record

Maturity ladder

Claim strength follows evidence strength

A record can move upward only when evidence improves. This protects the public DFT corpus from implying more than the record supports.

Score 0

M0 — Mentioned

The entity, concept, or route is named, but has not yet been supported by current source evidence.

Score 1

M1 — Source-bounded

The claim is supported by an internal or public source record and has clear validation boundaries.

Score 2

M2 — Live-site supported

The claim is supported by reachable public route evidence, title, metadata, or page text.

Score 3

M3 — Implementation candidate

The claim is connected to a concrete implementation candidate with an evidence table and missing-evidence boundary.

Score 4

M4 — Operational evidence

The claim is supported by published operational evidence with scope, date, responsible entity, and limitations.

Score 5

M5 — External review

The claim is supported by independent review, certification, peer review, audit, or formal external evaluation within a clearly stated scope.

Access the full kit

A unified view of all maturity scorings, evidence gaps, and export packages is available in the Submission Kit.

View Source-Bounded Submission Kit →

DFT mathematical-kernel review questions

  • ISF: What assumptions, domains, and proof obligations are required before ISF can move from formalization target to reviewed theorem?
  • PI-DST: Which graph, topology, and complexity assumptions must be made explicit for PI-DST?
  • Fiber Vector: How do vector operations correspond to system behavior, and when are resonance metrics meaningful?
  • 14D Tensor Ontology: Does the ontology improve classification or implementation design without implying physical-theory finality?

Mathematical-Kernel Review

The DFT mathematical kernel now exposes four priority review targets:

  1. ISF Stabilization Theorem Candidate.
  2. PI-DST Digital Structure Theorem Candidate.
  3. Fiber Vector Formalization Candidate.
  4. 14D Tensor Ontology Conformance Candidate.

Reviewers should inspect whether each target has: a clear domain; explicit assumptions; sufficient definitions; valid lemma dependencies; realistic proof obligations; simulation plan; forbidden public claims. No candidate should be treated as accepted theorem, certification, or external validation.

Proof-obligation blueprint

Candidate statements before theorem claims

Each candidate below must pass through definitions, assumptions, lemma dependencies, proof obligations, simulations, and external review before stronger public language is allowed.

P0theorem-candidate

ISF Stabilization Theorem Candidate

ISF is a candidate formalization for bounding recursive digital systems through regularization, ordinal transformation, and hierarchy constraints.

Formal statement draft

Given a recursive system S, a regularization operator R, an ordinal transformation T, and a hierarchy bound H_{ω1}, define P(S) = T(R(S)) ∩ H_{ω1}(S). Under declared admissibility and well-foundedness assumptions, P(S) is expected to admit either a terminating transition path or a fixed-point state.

Assumptions

  • S has a declared state space
  • S has a declared transition relation
  • R is defined on the class of recursive flows considered
  • T maps regularized flows into a well-founded ordinal index
  • H_{ω1} supplies a hierarchy boundary or admissible rank constraint
  • fixed-point and termination criteria are explicitly defined

Definitions needed

  • recursive system
  • regularization operator
  • ordinal transformation
  • hierarchy bound
  • admissible transition
  • fixed point
  • termination

Proof obligations

  • prove transition relation is well-founded under declared rank
  • prove R preserves admissible structure
  • prove T produces descending or non-increasing ordinal rank where required
  • prove no forbidden divergence remains inside P(S)
  • prove fixed-point case is distinguishable from nontermination

Simulation obligations

  • toy recursive process with terminating path
  • toy recursive process with fixed-point path
  • toy divergent process rejected by hierarchy bound

Reviewer questions

  • Are the operators R, T, and H sufficiently defined?
  • Is the target theorem too broad and should it be restricted?
  • What class of recursive systems should be admitted first?

Forbidden claims

  • ISF proves all infinite systems terminate
  • ISF is externally-validated
  • ISF guarantees-universal-convergence

Boundary: This is a theorem candidate and formalization scaffold, not an accepted-proof.

P0theorem-candidate

PI-DST Digital Structure Theorem Candidate

PI-DST is a candidate formalization for stable recursive digital structures under explicit topology, growth, and message-depth assumptions.

Formal statement draft

Let {S_n} be a sequence of digital structures with admissible inclusions S_n ⊂ S_{n+1}. Under a declared graph/topology model, bounded fractal-growth condition, and invariant-preserving transition rules, prove or simulate that message-depth and structural coherence remain bounded by the stated growth model.

Assumptions

  • digital structure S_n is explicitly defined
  • inclusion relation S_n ⊂ S_{n+1} is admissible
  • growth rule is specified
  • topology/graph metric is specified
  • Hausdorff/fractal dimension claim is measurable or replaced by a discrete analog
  • message-depth metric is defined

Definitions needed

  • digital structure
  • admissible inclusion
  • fractal growth condition
  • message depth
  • structural coherence
  • invariant-preserving transition

Proof obligations

  • prove admissible inclusions preserve defined invariants
  • prove or bound message depth under the declared graph model
  • prove dimension condition is meaningful for the selected digital structure
  • show failure cases where the theorem does not apply

Simulation obligations

  • graph growth simulation
  • message-depth simulation
  • invariant preservation simulation
  • failure-mode simulation

Reviewer questions

  • Should PI-DST use Hausdorff dimension directly or a discrete-network analog?
  • Which graph families are first admissible?
  • What constitutes structural collapse in the model?

Forbidden claims

  • PI-DST proves-infinite-scalability
  • PI-DST is accepted-proof
  • all DFT systems scale without collapse

Boundary: This is a formalization target for digital structure, not proof of infinite operational scalability.

P0definition-candidate

Fiber Vector Formalization Candidate

The fiber vector defines a proposed modeling primitive for representing a fiber through tension, elasticity, length/scope, orientation, and density.

Formal statement draft

A fiber F is represented as F = [T, E, L, O, ρ] over a declared domain D, with each component assigned a measurement, normalization, or categorical interpretation. Interactions between fibers are defined only after inner product, distance, or relation operators are specified.

Assumptions

  • fiber domain is declared
  • component units or categories are declared
  • normalization scheme is defined
  • interaction operator is defined
  • meaning of resonance is restricted to the declared operator

Definitions needed

  • fiber
  • tension
  • elasticity
  • length/scope
  • orientation
  • density
  • fiber interaction
  • resonance

Proof obligations

  • prove components are comparable only under declared normalization
  • show when dot-product style resonance is valid
  • show when metrics are semantic-only rather than operational

Simulation obligations

  • example governance fiber
  • example evidence fiber
  • example contract fiber
  • fiber interaction worked table

Reviewer questions

  • Are T, E, L, O, and ρ measurable, categorical, or hybrid?
  • Should the vector model be domain-specific rather than universal?
  • What examples best demonstrate the primitive without overclaiming?

Forbidden claims

  • fiber dynamics are validated-physics
  • fiber vector proves smart-contract behavior
  • fiber resonance is externally-validated

Boundary: The fiber vector is a modeling primitive requiring measurement and example specification.

P1review-needed

14D Tensor Ontology Conformance Candidate

The 14D tensor ontology is a semantic architecture map for classifying spatial, topological, governance, economic, and cross-dimensional relations.

Formal statement draft

Given a digital fabric object X, define a mapping Φ(X) into dimension bands B = {spatial, topological, governance, economic, cross-dimensional}. Conformance requires each mapped component to include role, tensor-like class, evidence state, and boundary.

Assumptions

  • dimension bands are semantic classes
  • mapping Φ is classification-oriented unless formal semantics are supplied
  • each component has route/evidence traceability
  • no physical-theory claim is inferred from the semantic map

Definitions needed

  • dimension band
  • tensor-like class
  • semantic mapping
  • conformance
  • projection
  • traceability

Proof obligations

  • show mapping is internally consistent
  • show each dimension band maps to reviewable architecture content
  • show ontology does not imply physics finality

Simulation obligations

  • map YellowChain to 14D ontology
  • map CitizenSolar to 14D ontology
  • map Stitchia to 14D ontology
  • map GFE to 14D ontology

Reviewer questions

  • Does the 14D ontology improve reviewability?
  • Which mappings are too speculative?
  • What evidence is needed before a mapping becomes implementation-supported?

Forbidden claims

  • 14D ontology validates Geometric Unity
  • 14D ontology is accepted-physics
  • tensor ontology proves implementation correctness

Boundary: The 14D ontology is a semantic architecture model, not accepted-physics.

Lemma dependency graph

From definitions to proof obligations

This graph lists the lemma candidates needed before stronger mathematical or architectural claims can be made. It is a blueprint for formalization, not a proof.

needs-proof

Well-Founded Transition Lemma

Shows that the transition relation used by ISF admits a rank or ordering that prevents forbidden infinite descent.

Supports: root definition

Required for: isf-stabilization-theorem

definition-needed

Regularization Domain Lemma

Defines the class of recursive flows on which the regularization operator is meaningful.

Supports: root definition

Required for: isf-stabilization-theorem

needs-proof

Ordinal Rank Descent Lemma

Shows that admissible transformations descend, stabilize, or remain bounded under a declared ordinal rank.

Supports: well-founded-transition-lemma

Required for: isf-stabilization-theorem

needs-proof

Admissible Inclusion Lemma

Shows that S_n ⊂ S_{n+1} preserves the declared structure of a digital system.

Supports: root definition

Required for: pi-dst-structure-theorem

needs-simulation

Fractal Growth Bound Lemma

Relates the selected growth rule to a measurable or discrete analog of fractal dimension.

Supports: admissible-inclusion-lemma

Required for: pi-dst-structure-theorem

needs-proof

Message Depth Bound Lemma

Attempts to bound message depth under the declared graph/topology model.

Supports: fractal-growth-bound-lemma

Required for: pi-dst-structure-theorem

definition-needed

Fiber Component Domain Lemma

Defines whether fiber components are numeric, categorical, normalized, or domain-specific.

Supports: root definition

Required for: fiber-vector-formalization

review-needed

Fiber Interaction Operator Lemma

Defines when fiber resonance, distance, dot products, or relation operators are meaningful.

Supports: fiber-component-domain-lemma

Required for: fiber-vector-formalization

review-needed

Semantic Band Classification Lemma

Shows that 14D dimension bands classify architecture records consistently.

Supports: root definition

Required for: tensor-ontology-conformance

needs-proof

Traceability Preservation Lemma

Shows that mapped ontology records preserve route, evidence, and boundary traceability.

Supports: semantic-band-classification-lemma

Required for: tensor-ontology-conformance