Chapter 23 — Constitutional Runtime Framework
Part I — Runtime Foundations
The Constitutional Runtime Framework, abbreviated CRF, is the governed execution environment through which constitutional knowledge is interpreted, resolved, validated, reasoned upon and executed within an explicit Constitutional Context.
The CRF SHALL execute constitutional meaning without redefining it.
The Constitution and the Constitutional Knowledge Graph remain authoritative. The Constitutional Compiler Framework produces governed runtime artefacts and projections. The Constitutional Runtime Framework consumes those artefacts together with explicit Constitutional Contexts and produces deterministic, explainable and auditable runtime outcomes.
Conceptually:
Constitution
│
▼
Constitutional Knowledge Graph
│
├──────────────────────────────┐
│ │
▼ ▼
Constitutional Compiler Constitutional Context
Framework │
│ │
▼ │
Runtime Bundle ◄────────────────────────┘
│
▼
Constitutional Runtime Framework
│
├── Context Resolution
├── Constitutional Resolution Policies
├── HECATE Validation
├── Governance Enforcement
├── Temporal Evaluation
├── Provenance Enforcement
├── Constitutional Reasoning
├── Workflow Execution
├── Event Processing
└── Explainability
The CRF SHALL remain independent of any single programming language, database, graph platform, workflow engine, cloud provider, deployment topology or AI model.
23.1. Purpose
The purpose of the Constitutional Runtime Framework is to establish the authoritative operational architecture through which constitutional knowledge becomes governed runtime behaviour.
The CRF SHALL provide a common execution model for:
- Constitutional Context assembly and validation;
- Constitutional Resolution Policy evaluation;
- HECATE validation;
- constitutional reasoning;
- governance and authority enforcement;
- temporal evaluation;
- provenance enforcement;
- workflow orchestration;
- event processing;
- computation invocation;
- publication eligibility determination;
- human and machine decision support;
- explainability;
- auditability;
- deterministic replay.
The CRF SHALL ensure that equivalent constitutional inputs, runtime artefacts and contexts produce equivalent constitutional outcomes unless an explicitly governed source of non-determinism applies.
The CRF SHALL NOT treat hidden application logic, database behaviour, user-interface defaults, infrastructure configuration or model-generated output as constitutional authority.
23.1.1. Runtime Question
The governing question of the CRF is:
How is constitutional knowledge deterministically interpreted, validated, resolved and executed within a defined Constitutional Context?
The runtime question is distinct from:
| Constitutional Layer | Governing Question |
|---|---|
| Constitution | What is authoritative? |
| Constitutional Knowledge Graph | How is constitutional knowledge interconnected? |
| Constitutional Compiler Framework | How is constitutional knowledge transformed into implementation projections? |
| Constitutional Runtime Framework | How is constitutional knowledge executed in context? |
| Operational Platform | How are runtime outcomes delivered to users and systems? |
23.1.2. Runtime Responsibilities
The CRF SHALL be responsible for runtime interpretation and execution.
It MAY:
- resolve applicable constitutional knowledge;
- validate objects, relationships, assertions and evidence;
- infer governed derived assertions;
- evaluate temporal applicability;
- enforce authority and access;
- orchestrate workflows and computations;
- publish runtime decisions and explanations;
- preserve runtime state and provenance.
It SHALL NOT silently:
- redefine Constitutional Identifiers;
- alter canonical semantics;
- modify governance authority;
- replace governing Resolution Policies;
- weaken validation intent;
- reinterpret provenance;
- convert inferred knowledge into canonical knowledge;
- activate AI-generated assertions without governed authority;
- create implementation-specific constitutional meaning.
23.1.3. Runtime Outcome
A Runtime Outcome is the governed result of a CRF execution.
Runtime Outcomes MAY include:
- resolved Constitutional Objects;
- validation results;
- inferred assertions;
- authority determinations;
- workflow transitions;
- computation results;
- report eligibility decisions;
- publication decisions;
- assurance findings;
- runtime diagnostics;
- execution explanations.
Every Runtime Outcome SHALL preserve traceability to:
- the initiating request;
- the applicable Runtime Context;
- the Runtime Bundle;
- the evaluated Constitutional Objects and Relationships;
- the governing policies and authorities;
- the applied validations;
- the execution plan;
- the runtime version;
- the resulting provenance chain.
23.2. Foundational Principle
The Constitutional Runtime Framework is the governed execution environment through which constitutional knowledge is interpreted, resolved, validated, reasoned upon and executed within an explicit Constitutional Context.
Runtime behaviour SHALL remain deterministic, explainable, reproducible, temporally accurate, provenance-preserving and independently auditable. The Runtime SHALL execute constitutional meaning but SHALL NOT redefine it.
Every runtime decision, validation result, inferred assertion, workflow transition and operational outcome SHALL preserve traceability to the Constitutional Objects, Constitutional Relationships, Constitutional Contexts, policies, evidence and compiler artefacts from which it was derived.
23.2.1. Authority Boundary
The CRF SHALL operate beneath the authority of the Constitution.
Conceptually:
Constitutional Authority
│
defines
▼
Constitutional Knowledge
│
compiled by
▼
Constitutional Compiler Framework
│
executed by
▼
Constitutional Runtime Framework
│
produces
▼
Governed Runtime Outcomes
The runtime SHALL NOT become an independent source of constitutional truth merely because it produces operationally significant outcomes.
23.2.2. Derived Knowledge Boundary
Knowledge produced during runtime SHALL be classified according to origin.
Typical classifications include:
- explicitly asserted;
- resolved;
- validated;
- computed;
- inferred;
- AI-proposed;
- human-approved;
- disputed;
- rejected;
- revoked;
- historical;
- simulated.
Derived runtime knowledge SHALL remain distinguishable from canonical constitutional assertions.
A derived assertion SHALL become canonical only through an explicit constitutional governance and activation process.
23.2.3. Technology Independence
The CRF defines logical runtime semantics rather than implementation technology.
The CRF SHALL NOT require a particular:
- programming language;
- database;
- graph store;
- message broker;
- workflow engine;
- policy engine;
- rule engine;
- AI model;
- container platform;
- cloud provider;
- deployment geography.
Implementations MAY distribute CRF capabilities across multiple services provided the logical constitutional runtime contract remains preserved.
23.3. Runtime Architecture
The Constitutional Runtime Framework SHALL be composed of governed runtime capabilities operating through explicit contracts.
A reference logical architecture is:
Runtime Gateway
│
▼
Runtime Request Normaliser
│
▼
Context Assembly Service
│
▼
Runtime Planner
│
├── Resolution Runtime
├── HECATE Validation Runtime
├── Governance Runtime
├── Temporal Runtime
├── Provenance Runtime
├── Reasoning Runtime
├── Workflow Runtime
├── Computation Runtime
└── Event Runtime
│
▼
Runtime Outcome Service
│
├── Explanation
├── Audit
├── Provenance
├── Publication
└── Observability
The architecture MAY be implemented as a modular monolith, distributed services, embedded runtime, edge runtime, federated runtime or hybrid architecture.
Deployment topology SHALL NOT alter constitutional semantics.
23.3.1. Runtime Control Plane
The Runtime Control Plane SHALL govern runtime configuration and authority.
It SHOULD manage:
- approved Runtime Bundles;
- approved Runtime Profiles;
- runtime versions;
- policy activation;
- validation activation;
- tenant and jurisdiction overlays;
- runtime capability registration;
- runtime health and compatibility;
- trust anchors;
- emergency controls;
- deployment manifests.
Control-plane changes SHALL be governed, versioned and auditable.
The control plane SHALL NOT silently modify active execution semantics.
23.3.2. Runtime Data Plane
The Runtime Data Plane SHALL perform governed execution.
It MAY process:
- Constitutional Objects;
- Constitutional Relationships;
- Constitutional Contexts;
- assertions;
- evidence;
- runtime requests;
- workflow events;
- computation inputs;
- validation inputs;
- resolution candidates;
- runtime state.
The data plane SHALL execute only artefacts and policies approved by the Runtime Control Plane or an explicitly authorised local authority.
23.3.3. Runtime Management Plane
The Runtime Management Plane SHOULD support:
- observability;
- diagnostics;
- deployment management;
- runtime inventory;
- capacity management;
- incident response;
- replay administration;
- audit export;
- conformance testing.
Management-plane operations SHALL preserve separation of duties from constitutional authority where required.
23.3.4. Runtime Trust Plane
The Runtime Trust Plane SHALL establish whether runtime inputs, bundles, components and outcomes may be trusted for their intended use.
It MAY evaluate:
- digital signatures;
- compiler provenance;
- runtime provenance;
- authority chains;
- software supply-chain attestations;
- evidence integrity;
- component identity;
- deployment integrity;
- model identity;
- policy integrity.
Trust determinations SHALL remain explicit, contextual and auditable.
23.3.5. Runtime Architecture Invariants
Every conforming CRF implementation SHALL preserve the following invariants:
- constitutional meaning originates above the runtime;
- every execution occurs within an explicit Runtime Context;
- every authoritative execution uses an identifiable Runtime Bundle;
- every decision preserves traceability;
- derived assertions remain distinguishable from explicit assertions;
- policy and validation selection are deterministic;
- temporal applicability is evaluated explicitly;
- tenant isolation is enforced;
- runtime state cannot silently supersede constitutional state;
- runtime outcomes are independently explainable and auditable.
23.4. Runtime Components
A Runtime Component is a governed Component that performs one or more Constitutional Runtime capabilities.
Runtime Components belong to Modules in accordance with the ZAYAZ ontology.
Pergamum Pulse SHALL preserve both Module and Component lineage for every Runtime Component and every runtime outcome derived from it.
23.4.1. Runtime Component Classes
Runtime Component classes MAY include:
| Component Class | Constitutional Responsibility |
|---|---|
| Runtime Gateway | Accepts and normalises execution requests |
| Context Assembler | Constructs explicit Runtime Contexts |
| Runtime Planner | Produces deterministic execution plans |
| Resolution Runtime | Evaluates Constitutional Resolution Policies |
| HECATE Runtime | Executes constitutional validation |
| Governance Runtime | Resolves and enforces authority |
| Temporal Runtime | Evaluates effective, valid and transaction time |
| Provenance Runtime | Preserves and evaluates lineage and evidence |
| Reasoning Runtime | Produces governed derived assertions |
| Workflow Runtime | Executes constitutional workflows |
| Computation Runtime | Invokes governed calculations and models |
| Event Runtime | Processes constitutional events |
| Explanation Runtime | Produces machine- and human-readable explanations |
| Audit Runtime | Persists immutable execution records |
| Publication Runtime | Determines and executes eligible publication |
These classes define constitutional responsibilities rather than mandatory deployable services.
23.4.2. Component Identity
Every Runtime Component SHALL possess:
- a Constitutional Identifier;
- canonical name;
- Component classification;
- Module lineage;
- version;
- lifecycle state;
- governing authority;
- supported capabilities;
- required capabilities;
- security profile;
- provenance;
- compatibility declarations;
- deployment identity where instantiated.
Component identity SHALL remain stable across deployment technologies.
23.4.3. Component Contracts
Every Runtime Component SHALL expose a governed Runtime Component Contract.
The contract SHALL define:
- accepted input types;
- produced output types;
- required Runtime Context dimensions;
- supported execution modes;
- deterministic guarantees;
- side-effect behaviour;
- transaction behaviour;
- failure behaviour;
- security requirements;
- provenance obligations;
- observability obligations;
- compatibility constraints.
Component contracts SHOULD be machine-readable and compiler-addressable.
23.4.4. Component Capability Declaration
Every Runtime Component SHALL declare its capabilities.
Capabilities MAY include:
- context assembly;
- exact resolution;
- hierarchical resolution;
- temporal evaluation;
- structural validation;
- semantic validation;
- reasoning;
- workflow execution;
- event replay;
- computation execution;
- assurance verification;
- explanation generation;
- offline execution;
- edge execution;
- federated execution.
The Runtime Planner SHALL verify capability compatibility before execution.
23.4.5. Component Substitution
A Runtime Component MAY be replaced by another implementation where the replacement:
- satisfies the same constitutional contract;
- supports the required capability profile;
- preserves semantic behaviour;
- preserves security and provenance obligations;
- passes the applicable conformance suite;
- is approved by the governing authority.
Implementation substitution SHALL NOT alter constitutional meaning.
23.4.6. Component Failure Isolation
Runtime Components SHOULD isolate failures to the smallest valid execution boundary.
Failure isolation SHALL preserve:
- transaction integrity;
- provenance;
- diagnostic detail;
- retry eligibility;
- compensation requirements;
- downstream consistency.
A component failure SHALL NOT result in a falsely successful constitutional outcome.
23.5. Runtime Boundary
The Runtime Boundary defines the constitutional limits within which an execution is authorised to operate.
The Runtime Boundary SHALL distinguish:
- constitutional authority;
- execution authority;
- data scope;
- tenant scope;
- jurisdictional scope;
- temporal scope;
- security scope;
- network scope;
- side-effect scope;
- publication scope.
Every runtime execution SHALL occur within a declared Runtime Boundary.
23.5.1. Constitutional Boundary
The Constitutional Boundary identifies the constitutional release, graph state, policies and authorities applicable to an execution.
The runtime SHALL NOT access undeclared constitutional versions merely because they are technically available.
23.5.2. Tenant Boundary
The Tenant Boundary defines the white-label or organisational domain within which execution may operate.
Cross-tenant access SHALL be prohibited by default.
Any cross-tenant execution SHALL require:
- explicit authority;
- explicit purpose;
- explicit data scope;
- explicit relationship scope;
- explicit provenance;
- explicit audit;
- explicit security validation.
23.5.3. Jurisdictional Boundary
The Jurisdictional Boundary defines the legal, regulatory or policy jurisdiction applicable to execution.
The runtime SHALL preserve distinctions among:
- legal applicability;
- regulatory reporting applicability;
- assurance applicability;
- contractual applicability;
- voluntary-framework applicability.
Jurisdiction SHALL be resolved rather than inferred from deployment geography alone.
23.5.4. Temporal Boundary
The Temporal Boundary defines the time dimensions applicable to execution.
It MAY include:
- effective time;
- valid time;
- transaction time;
- observation time;
- publication time;
- evidence acquisition time;
- regulatory issuance time;
- reporting period.
Implicit use of the system clock SHALL NOT substitute for a governed Temporal Boundary where historical, future or bitemporal evaluation is required.
23.5.5. Side-Effect Boundary
The Side-Effect Boundary defines which external or persistent changes an execution may perform.
Side effects MAY include:
- creating assertions;
- changing workflow state;
- publishing reports;
- invoking external APIs;
- writing registry entries;
- generating notifications;
- initiating assurance activity;
- triggering financial or operational actions.
Side effects SHALL require explicit authority and SHALL be recorded in execution provenance.
23.5.6. Boundary Enforcement
Runtime Boundaries SHALL be enforced before, during and after execution.
Enforcement SHALL include:
- admission validation;
- continuous policy enforcement;
- output validation;
- side-effect verification;
- audit reconciliation.
A boundary violation SHALL fail closed unless an explicitly governed emergency policy states otherwise.
23.6. Runtime Context
A Runtime Context is the execution-specific Constitutional Context within which the CRF interprets and executes constitutional knowledge.
Every runtime operation SHALL possess an explicit Runtime Context.
A Runtime Context SHALL NOT be represented solely as an ungoverned collection of application parameters.
23.6.1. Runtime Context Dimensions
A Runtime Context MAY include:
- tenant;
- organisation;
- legal entity;
- jurisdiction;
- regulatory framework;
- reporting framework;
- reporting period;
- fiscal period;
- product;
- facility;
- supply-chain scope;
- assessment boundary;
- methodology;
- unit system;
- language;
- currency;
- assurance level;
- publication profile;
- access profile;
- execution mode;
- scenario;
- constitutional release;
- Runtime Bundle;
- runtime version.
The applicable dimensions SHALL be defined by the governing Runtime Profile and execution request.
23.6.2. Context Assembly
Runtime Context assembly SHALL be deterministic.
Context MAY be assembled from:
- explicit request context;
- tenant context;
- organisation context;
- jurisdiction context;
- reporting context;
- deployment context;
- user or service authority context;
- workflow context;
- policy defaults;
- approved inheritance.
Context sources SHALL have explicit precedence.
Conflicting context dimensions SHALL be resolved through Constitutional Resolution Policies.
23.6.3. Context Inheritance
A Runtime Context MAY inherit dimensions from one or more parent Constitutional Contexts.
Inheritance SHALL preserve:
- source context identity;
- inherited dimensions;
- override authority;
- resolution order;
- provenance;
- temporal applicability.
Context inheritance SHALL NOT create hidden runtime defaults.
23.6.4. Context Completeness
The CRF SHALL validate Runtime Context completeness before execution.
A Runtime Context is complete where all dimensions required by the applicable:
- Runtime Profile;
- Runtime Bundle;
- Component contracts;
- Resolution Policies;
- validation rules;
- security policies;
- jurisdictional policies;
- temporal policies
have been supplied or deterministically resolved.
Incomplete contexts SHALL fail before authoritative execution unless the governing policy permits controlled partial evaluation.
23.6.5. Context Fingerprint
Every authoritative Runtime Context SHALL possess a deterministic Context Fingerprint.
The fingerprint SHALL be derived from the constitutionally relevant context dimensions and their versions.
The fingerprint SHALL support:
- deterministic replay;
- cache validation;
- audit correlation;
- outcome comparison;
- resolution verification;
- distributed execution consistency.
Context fingerprints SHALL exclude irrelevant transport or infrastructure metadata unless such metadata affects constitutional behaviour.
23.6.6. Context Immutability
A Runtime Context SHOULD be immutable for the duration of an execution session.
Where context changes are required, the CRF SHALL create:
- a new Runtime Context version;
- a new Context Fingerprint;
- an explicit context transition;
- provenance linking the prior and subsequent contexts.
Silent mutation of context during execution SHALL be prohibited.
23.6.7. Context Minimisation
Runtime Contexts SHALL contain only the dimensions necessary for the intended execution.
Context minimisation supports:
- privacy;
- security;
- deterministic reasoning;
- tenant isolation;
- performance;
- explainability.
Omitted context dimensions SHALL NOT be inferred from unrelated personal, tenant or deployment data without governing authority.
23.7. Runtime Identity
Runtime identity establishes stable and traceable identity for runtime entities and events.
The CRF SHALL distinguish among:
- constitutional identity;
- compiler artefact identity;
- Runtime Bundle identity;
- Runtime Component identity;
- deployment identity;
- execution identity;
- session identity;
- actor identity;
- request identity;
- outcome identity;
- event identity.
These identities SHALL NOT be collapsed merely because an implementation uses a single technical identifier.
23.7.1. Execution Identifier
Every execution SHALL possess a globally unique Execution Identifier.
The Execution Identifier SHALL remain stable across:
- retries;
- distributed component calls;
- diagnostic events;
- explanation generation;
- audit export.
Where a retry constitutes a new execution attempt, the CRF SHALL preserve both the parent Execution Identifier and the Attempt Identifier.
23.7.2. Session Identifier
A Runtime Session MAY group multiple related executions.
The Session Identifier SHALL support:
- workflow continuity;
- conversational continuity;
- multi-step resolution;
- long-running assurance activity;
- report preparation;
- investigation;
- simulation.
Session identity SHALL NOT imply that all executions share identical Runtime Contexts.
23.7.3. Actor Identity
Every runtime action SHALL identify the initiating actor where known.
Actors MAY include:
- natural persons;
- organisations;
- services;
- Runtime Components;
- AI agents;
- external authorities;
- federated runtimes.
Actor identity SHALL remain distinguishable from authority.
An actor may initiate an action without possessing the authority to approve or publish its outcome.
23.7.4. Runtime Artefact Identity
Every runtime-consumed artefact SHALL possess an identity that resolves to its compiler and constitutional lineage.
Runtime artefacts MAY include:
- rules;
- schemas;
- policy bundles;
- graph projections;
- code modules;
- workflow definitions;
- model packages;
- prompt templates;
- validation plans;
- documentation fragments.
The CRF SHALL reject unidentified or untrusted artefacts from authoritative execution.
23.7.5. Correlation Identity
The CRF SHOULD support Correlation Identifiers for related runtime activity across Components and Modules.
Correlation SHALL preserve both Module and Component lineage.
Correlation Identifiers SHALL NOT replace Constitutional Identifiers, Execution Identifiers or provenance relationships.
23.7.6. Identity Resolution
Runtime identity resolution SHALL be deterministic and governed.
The CRF SHALL detect:
- duplicate identities;
- identity collisions;
- unresolved identities;
- stale aliases;
- cross-tenant identity leakage;
- unauthorised identity substitution;
- inconsistent federated mappings.
Identity ambiguity SHALL prevent authoritative execution unless explicitly resolved.
23.8. Runtime State
Runtime State is the governed operational state created, observed or modified during CRF execution.
Runtime State SHALL remain distinguishable from canonical constitutional state.
23.8.1. State Classifications
Runtime State MAY be classified as:
- request state;
- context state;
- execution state;
- workflow state;
- validation state;
- resolution state;
- reasoning state;
- computation state;
- event state;
- publication state;
- audit state;
- cache state;
- projection state;
- simulation state.
State classifications SHALL originate from governed Constitutional Value Providers where applicable.
23.8.2. Authoritative and Derived State
The CRF SHALL distinguish:
- authoritative runtime state;
- derived runtime state;
- cached state;
- transient state;
- simulated state;
- observed state;
- externally sourced state.
Cached or transient state SHALL NOT become authoritative merely because it is used operationally.
23.8.3. State Lifecycle
Runtime State SHALL participate in a governed lifecycle.
Typical lifecycle states MAY include:
Created
│
▼
Active
│
├──► Suspended
│
├──► Failed
│
├──► Compensating
│
▼
Completed
│
▼
Archived
Lifecycle transitions SHALL preserve actor, authority, timestamp, reason and provenance.
23.8.4. State Transition
A Runtime State transition SHALL be represented as an explicit runtime event.
The transition SHALL identify:
- prior state;
- subsequent state;
- transition type;
- initiating actor;
- governing policy;
- authority;
- timestamp;
- Runtime Context;
- supporting evidence;
- resulting side effects.
Invalid state transitions SHALL be rejected.
23.8.5. State Consistency
The CRF SHALL declare the consistency model applicable to Runtime State.
Supported models MAY include:
- strong consistency;
- serialisable consistency;
- snapshot consistency;
- causal consistency;
- eventual consistency;
- bounded staleness.
The selected consistency model SHALL be appropriate to the constitutional significance of the state.
Authoritative regulatory, governance or assurance outcomes SHALL NOT rely on an undeclared consistency model.
23.8.6. State Persistence
Runtime State MAY be:
- ephemeral;
- session-persistent;
- workflow-persistent;
- audit-persistent;
- constitutionally retained;
- legally retained.
Persistence requirements SHALL be governed by:
- state classification;
- jurisdiction;
- tenant policy;
- assurance requirements;
- retention policy;
- privacy requirements;
- legal hold.
23.8.7. State Reconstruction
The CRF SHALL support reconstruction of constitutionally significant Runtime State from preserved events, manifests and provenance where required.
Reconstruction SHALL identify:
- source Runtime Bundle;
- source Runtime Context;
- event sequence;
- applied policies;
- applied validations;
- component versions;
- temporal boundaries;
- resulting state.
Reconstructed state SHALL be marked as reconstructed and SHALL retain reconstruction provenance.
23.8.8. State Isolation
Runtime State SHALL be isolated according to:
- tenant;
- execution;
- session;
- security domain;
- jurisdiction;
- workflow;
- simulation boundary.
State leakage across boundaries SHALL constitute a critical runtime integrity failure.
23.9. Runtime Bundle
A Runtime Bundle is the immutable, governed package of compiled constitutional artefacts required to execute a defined runtime capability or scope.
A Runtime Bundle SHALL be produced through the Constitutional Compiler Framework or another explicitly approved constitutional compilation process.
The Runtime Bundle SHALL NOT become an independent constitutional source of truth.
23.9.1. Bundle Contents
A Runtime Bundle MAY contain:
- compiled schemas;
- graph projections;
- Resolution Policies;
- HECATE validation rules;
- reasoning rules;
- governance policies;
- temporal policies;
- provenance policies;
- workflow definitions;
- computation definitions;
- event definitions;
- API contracts;
- Runtime Component descriptors;
- trust anchors;
- explanation templates;
- conformance fixtures;
- deployment descriptors.
Every included artefact SHALL preserve constitutional and compiler lineage.
23.9.2. Bundle Identity
Every Runtime Bundle SHALL possess:
- a Constitutional Identifier or governed artefact identifier;
- canonical name;
- bundle version;
- constitutional source release;
- compiler identity;
- compiler version;
- Projection Profile identities;
- build fingerprint;
- content digest;
- lifecycle state;
- governing authority;
- intended Runtime Profiles;
- compatibility declarations;
- signature status;
- provenance.
23.9.3. Bundle Immutability
A published Runtime Bundle SHALL be immutable.
Changes SHALL produce a new bundle version and content digest.
A mutable deployment directory, container tag or object-store reference SHALL NOT substitute for immutable Bundle identity.
23.9.4. Bundle Composition
Runtime Bundles MAY compose other Runtime Bundles.
Examples include:
ZAYAZ Core Runtime Bundle
│
├── HECATE Bundle
├── CRP Bundle
├── Governance Bundle
└── Provenance Bundle
Tenant Runtime Bundle
│
├── ZAYAZ Core Runtime Bundle
├── White-label Base Bundle
├── Tenant Overlay Bundle
└── Jurisdiction Bundle
Composition SHALL preserve:
- bundle identity;
- dependency order;
- override authority;
- compatibility;
- provenance;
- semantic-loss declarations.
23.9.5. Bundle Resolution
The applicable Runtime Bundle SHALL be constitutionally resolved from the Runtime Context.
Resolution MAY consider:
- tenant;
- jurisdiction;
- reporting framework;
- constitutional release;
- runtime version;
- deployment profile;
- assurance profile;
- language;
- security classification;
- execution mode.
The runtime SHALL NOT select bundles through hidden infrastructure defaults.
23.9.6. Bundle Compatibility
Before execution, the CRF SHALL validate compatibility among:
- Runtime Bundle version;
- runtime engine version;
- Runtime Component versions;
- Constitutional Context;
- tenant overlay;
- jurisdiction overlay;
- external dependencies;
- required capabilities.
Incompatible bundles SHALL not be activated for authoritative execution.
23.9.7. Bundle Trust
The CRF SHALL evaluate Runtime Bundle trust.
Trust evaluation MAY include:
- compiler signature;
- publisher signature;
- content digest;
- source fingerprint;
- software bill of materials;
- build attestation;
- dependency attestations;
- conformance results;
- revocation status.
Unsigned bundles MAY be used only where the governing Runtime Profile explicitly permits them.
23.9.8. Bundle Activation
Runtime Bundle activation SHALL be a governed lifecycle transition.
Activation SHALL require:
- identity validation;
- integrity validation;
- compatibility validation;
- trust validation;
- HECATE conformance validation;
- authority approval;
- deployment registration;
- rollback readiness.
Activation SHALL be atomic within the applicable deployment boundary.
23.9.9. Bundle Revocation
A Runtime Bundle MAY be revoked due to:
- security compromise;
- semantic defect;
- invalid compiler output;
- regulatory change;
- expired authority;
- dependency compromise;
- failed conformance;
- supersession.
Revocation SHALL preserve historical replayability while preventing unauthorised future use.
23.10. Runtime Manifest
Every authoritative CRF deployment and execution SHALL be associated with a Runtime Manifest.
The Runtime Manifest is the governed record that identifies the runtime configuration, components, bundles, contexts, trust state and capabilities applicable to an execution or deployment.
The Runtime Manifest SHALL itself be a Constitutional Object or a governed runtime artefact with resolvable constitutional identity.
23.10.1. Manifest Scope
A Runtime Manifest MAY describe:
- a runtime deployment;
- a Runtime Bundle activation;
- a Runtime Session;
- an individual execution;
- a federated runtime;
- an edge runtime;
- a white-label runtime;
- an assurance runtime;
- a simulation runtime.
The scope SHALL be explicit.
23.10.2. Mandatory Manifest Elements
A Runtime Manifest SHALL include, where applicable:
- manifest identity;
- manifest version;
- manifest scope;
- constitutional release;
- Constitutional Knowledge Graph release or snapshot;
- Runtime Bundle identities and digests;
- compiler identities and versions;
- runtime engine identity and version;
- Runtime Component identities and versions;
- Runtime Profile;
- applicable Projection Profiles;
- tenant and white-label overlays;
- jurisdiction overlays;
- security profile;
- trust anchors;
- temporal boundary;
- capability declarations;
- dependency declarations;
- deployment identity;
- activation timestamp;
- lifecycle state;
- signatures;
- provenance.
23.10.3. Execution Manifest
Each authoritative execution SHALL produce or reference an Execution Manifest.
The Execution Manifest SHALL additionally identify:
- Execution Identifier;
- Attempt Identifier;
- Session Identifier where applicable;
- actor identity;
- authority identity;
- request fingerprint;
- Context Fingerprint;
- execution plan identity;
- selected policies;
- selected validators;
- selected reasoning profile;
- selected temporal evaluation;
- side-effect permissions;
- outcome identity;
- diagnostic summary;
- execution timestamps.
23.10.4. Manifest Immutability
A manifest associated with a completed execution SHALL be immutable.
Corrections SHALL be represented through:
- a new manifest version;
- a correction relationship;
- a supersession relationship;
- explicit provenance;
- retained prior state.
23.10.5. Manifest Fingerprint
Every Runtime Manifest SHALL possess a deterministic Manifest Fingerprint.
The fingerprint SHALL enable:
- deployment verification;
- runtime comparison;
- deterministic replay;
- audit correlation;
- configuration-drift detection;
- federated trust evaluation;
- incident reconstruction.
23.10.6. Manifest Validation
HECATE SHALL validate Runtime Manifests for:
- identity completeness;
- bundle integrity;
- component compatibility;
- context completeness;
- authority;
- signature validity;
- dependency integrity;
- temporal applicability;
- tenant isolation;
- security conformance;
- provenance completeness;
- lifecycle validity.
An invalid Runtime Manifest SHALL prevent authoritative execution.
23.10.7. Manifest Comparison
The CRF SHALL support semantic comparison of Runtime Manifests.
Manifest comparison SHALL identify changes in:
- constitutional release;
- Runtime Bundles;
- policies;
- validators;
- component versions;
- context dimensions;
- trust anchors;
- capabilities;
- deployment topology;
- security posture.
Comparison SHALL distinguish semantic changes from operationally irrelevant serialization changes.
23.10.8. Runtime Drift Detection
The active runtime SHALL be continuously or periodically compared with its approved Runtime Manifest.
Drift MAY include:
- unapproved component versions;
- changed policy bundles;
- missing signatures;
- modified configuration;
- undeclared dependencies;
- altered trust anchors;
- changed tenant overlays;
- disabled validations;
- changed runtime capabilities.
Constitutionally significant drift SHALL produce an explicit runtime integrity event.
Critical drift SHALL suspend authoritative execution unless an approved emergency policy applies.
23.10.9. Pergamum Pulse Integration
Pergamum Pulse SHALL ingest Runtime Manifests and associated runtime events while preserving:
- Module lineage;
- Component lineage;
- Runtime Bundle lineage;
- compiler lineage;
- Constitutional Context;
- temporal applicability;
- provenance;
- tenant isolation;
- security classification.
Pergamum Pulse MAY derive runtime intelligence including:
- drift risk;
- dependency impact;
- policy divergence;
- validation coverage;
- runtime trust posture;
- component reliability;
- constitutional conformance trends.
Derived intelligence SHALL remain Intelligence Layer assertions until activated through constitutional governance.
23.10.10. Part I Conformance
A Constitutional Runtime Framework implementation conforms to Part I where it:
- executes constitutional meaning without redefining it;
- maintains an explicit authority boundary;
- operates through an explicit Runtime Context;
- preserves stable runtime identities;
- distinguishes runtime state from constitutional state;
- consumes identifiable and immutable Runtime Bundles;
- produces or references complete Runtime Manifests;
- preserves Module and Component lineage;
- supports deterministic replay and explanation;
- rejects invalid or untrusted authoritative runtime configurations;
- enforces tenant, jurisdictional, temporal and side-effect boundaries;
- preserves provenance for every constitutionally significant outcome.
Part I Foundational Principle
Runtime Foundations establish the constitutional boundary, identity, context, state, artefact and manifest architecture required for governed execution across ZAYAZ.
No runtime operation SHALL be authoritative unless it can identify the constitutional knowledge being executed, the Runtime Context in which it applies, the Runtime Bundle that implements it, the Runtime Components that perform it, the authority under which it operates and the Runtime Manifest that makes the execution reproducible.
By making runtime foundations explicit Constitutional Objects and governed runtime artefacts, ZAYAZ ensures that operational behaviour remains deterministic, explainable, secure, tenant-isolated, temporally accurate and traceable from constitutional definition through compilation to execution and outcome.