SRRM — Secondary Resource Reintegration Module
Architecture:
RSGA™ — Resource Sustainability Governance Architecture
Parent Standard:
Resource Recovery & Circularity Standard (RRCS)
Category:
Governance & Enforcement
Subcategory:
Resource Governance
Type:
Core Module
Governed Space:
Secondary Resource Reintegration & Circularity Governance
Module ID:
RSGA-RRCS-SRRM-05
Origin ID:
OOF-RSGA-RRCS-SRRM
Version:
1.0
Status:
Canonical Open
Effective Date:
8 October 2026
Compatibility:
Methodology OS — Modular Compatibility
GIE-Compatible:
Yes
AI-Readable:
Yes
Authority:
OOF® — OriginOpen® Foundation
Protection:
Protected Methodological Work
Canonical Language:
English
1. Canonical Definition
SRRM — Secondary Resource Reintegration Module is the Core Module within RRCS that governs how validated recovered Resources are classified, prepared, traced, assessed for reintegration readiness, connected to legitimate subsequent Resource-use requirements, reintegrated under applicable governance conditions, monitored through subsequent use, and evidenced across successive Resource cycles.
SRRM establishes the governance continuity between validated Resource Recovery and actual secondary Resource use.
It distinguishes the existence of a validated recovered Resource from its availability, authorized reintegration, operational use, and demonstrated Circularity.
Its foundational distinctions are:
Validated Recovered Resource ≠ Reintegrated Resource.
Reintegration Ready ≠ Reintegration Authorized.
Reintegrated Resource ≠ Actually Utilized Resource.
One Successful Recovery Cycle ≠ Unlimited Circularity.
2. Operational Role
SRRM governs the final stage of Resource Recovery & Circularity Governance.
ERRM establishes what Resource remains after original use.
RPMM establishes whether Recovery is feasible.
RURPM governs actual Recovery process execution.
RRRGM establishes whether recovered output has been validated.
SRRM governs the transition from validated recovered Resource capability into a subsequent legitimate Resource-use cycle.
Its operational responsibilities include:
Establishing secondary Resource identity. Preserving Recovery and validation provenance. Determining reintegration readiness. Identifying applicable subsequent-use requirements. Preserving availability and Access conditions. Verifying applicable reintegration authorization. Recording actual Resource reintegration. Distinguishing reintegration from actual utilization. Monitoring subsequent Resource-use evidence. Preserving Resource-cycle continuity. Evaluating Circularity performance within defined boundaries.
Supporting repeated Recovery and reintegration cycles. Preventing unsupported or double-counted Circularity claims.
SRRM does not independently grant Access, Allocation, substitution, or operational execution authority.
3. Operational Question
How should validated recovered Resources be classified, prepared, authorized through competent governance mechanisms, reintegrated, and traced into subsequent legitimate Resource-use cycles so that actual Resource continuity and Circularity can be evidenced without confusing Recovery, validation, readiness, availability, allocation, reintegration, utilization, or long-term Sustainability?
4. Position in Architecture Governance Flow
RSGA™ Governance Flow
Resource Characterization → Availability & Capacity → Demand → Dependency & Criticality → Access → Prioritization & Allocation → Consumption & Utilization → Scarcity & Constraint → Recovery & Circularity → Substitution & Flexibility → Interdependency & Resilience → Continuity & Sustainability
RRCS Governance Flow
1. End-of-Use Resource Recognition — ERRM 2. Resource Recovery Potential — RPMM 3. Resource Recovery Process — RURPM 4. Recovered Resource Recognition & Validation — RRRGM 5. Secondary Resource Reintegration — SRRM
SRRM occupies the fifth and final governance position.
It establishes the evidence connecting validated recovered Resources with subsequent Resource use.
Its outputs may support Resource Availability, Consumption & Utilization, Substitution, Resilience, and Sustainability governance.
5. Governed Space
Secondary Resource Reintegration & Circularity Governance
This governed space concerns the classification, readiness, authorized reintegration, operational use evidence, and lifecycle continuity of validated recovered Resources.
It includes the traceable transition between Resource-use cycles.
The governed space does not assume that every recovered Resource must be reintegrated or that every reintegration produces a net sustainability benefit.
6. Governed Object
The primary Governed Object is:
A validated recovered Resource or Secondary Resource Candidate associated with an identifiable Recovery history, applicable subsequent-use requirements, reintegration conditions, and Resource-cycle continuity record.
Canonical relationship:
Validated Recovered Resource → Secondary Resource Classification → Reintegration Readiness → Subsequent- Use Requirements → Applicable Authority & Access References → Reintegration → Subsequent Resource Use → Circularity Evidence → Cycle Reassessment
7. Scope
SRRM governs:
Secondary Resource candidate identification. Secondary Resource classification. Recovered Resource provenance continuity. Reintegration readiness. Subsequent-use requirements. Resource availability references. Resource Access references. Allocation references. Substitution validity references. Reintegration authorization references. Reintegration execution evidence. Actual subsequent Resource use. Resource-cycle identity. Circularity measurement boundaries. Repeated Resource cycles. Resource quality degradation across cycles. Circularity evidence and uncertainty. Resource-cycle monitoring and reassessment.
SRRM does not independently determine Resource Access rights, Resource Allocation priority, substitution authorization, technical certification, operational safety, Value eligibility, Harm, Liability, or long-term Sustainability.
8. Foundational Governance Principles
8.1 Validation–Reintegration Separation
Validated Recovered Resource ≠ Reintegrated Resource.
8.2 Readiness–Authorization Separation
Reintegration Ready ≠ Reintegration Authorized.
8.3 Availability–Allocation Separation
Available Secondary Resource ≠ Allocated Secondary Resource.
8.4 Reintegration–Utilization Separation
Reintegrated Resource ≠ Actually Utilized Resource.
8.5 Circularity Evidence Principle
Recyclable ≠ Recycled.
Recovered ≠ Reintegrated.
Reintegrated ≠ Sustainably Circulated.
8.6 Resource-Cycle Continuity Principle
One Successful Recovery Cycle ≠ Unlimited Circularity.
9. Secondary Resource Candidate
A Secondary Resource Candidate is a validated recovered Resource proposed for subsequent legitimate Resource use.
Its candidate status does not establish:
Availability
Access
Allocation
Substitution Validity
Reintegration Authorization
Actual Utilization
Long-Term Sustainability
10. Secondary Resource Classification
SRRM should establish whether the recovered Resource satisfies the applicable conditions for secondary Resource classification.
Classification should preserve:
Resource Identity
Recovery Origin
Validation State
Resource Type
Resource Quality
Intended-Use Scope
Applicable Restrictions
Classification Evidence
Effective Time
Classification must not silently replace technical or legal requirements established by competent authorities.
11. Secondary Resource Identity
Each material secondary Resource should have a traceable identity.
Minimum references include:
Secondary Resource ID
Recovered Resource ID
Original Resource Reference
Recovery Process Reference
Validation Profile Reference
Resource Type
Quantity
Condition
Location
Current Resource State
Resource-Cycle Reference
12. Identity Continuity
Secondary Resource identity should preserve its relationship to earlier Resource states.
Canonical relationship:
Original Resource → Residual Resource → Candidate Recovered Output → Validated Recovered Resource → Secondary Resource → Subsequent Resource Use
New Resource Classification ≠ Loss of Resource Origin.
13. Reintegration Readiness
Reintegration readiness concerns whether a validated recovered Resource satisfies the defined conditions required to enter a subsequent Resource-use process.
Relevant conditions may include:
Resource Quality
Quantity
Location
Storage Condition
Compatibility:
Handling Requirements
Operational Preparation
Applicable Restrictions
Required Evidence
Readiness does not create authorization.
14. Readiness Principle
Technically Ready ≠ Operationally Available.
Operationally Available ≠ Authorized for Reintegration.
15. Subsequent-Use Requirements
SRRM should identify the requirements of the proposed subsequent Resource use.
These may include:
Required Resource Type
Required Quantity
Required Quality
Required Functional Capability
Required Location
Required Time
Compatibility: Conditions
Operating Restrictions
Applicable Technical Requirements
The proposed use must remain distinguishable from actual use.
16. Intended-Use Compatibility
A validated recovered Resource may satisfy one use but not another.
Validated for Use A ≠ Compatible With Use B.
Where the intended use changes materially, the applicable validation evidence may require reassessment.
17. Resource Availability
A secondary Resource may be validated but unavailable.
Examples include:
Resource Reserved Elsewhere
Resource Outside Required Location
Resource Not Available Within Required Time
Resource Inaccessible
Resource Under Restriction
Resource Already Allocated
SRRM preserves the applicable availability evidence.
RACS governs Resource Availability & Capacity.
18. Resource Access
Secondary Resource use may require Access rights or other legitimate permissions.
SRRM must preserve the applicable Access references.
Secondary Resource Existence ≠ Resource Access Permission.
RAGS governs Resource Access.
19. Resource Allocation
Where secondary Resources are limited, their distribution may require prioritization and allocation.
SRRM records the applicable allocation decision and its conditions.
It does not independently establish allocation priority.
Secondary Resource Availability ≠ Allocation Authorization.
RPAS governs Resource Prioritization & Allocation.
20. Substitution Validity
A secondary Resource may replace a primary Resource in a subsequent application.
However, substitution requires its own applicable compatibility and governance determination.
Secondary Resource Availability ≠ Substitution Validity.
Substitution Validity ≠ Substitution Authorization.
RSFS governs Resource Substitution & Flexibility.
21. Reintegration Authorization
Before reintegration, SRRM must preserve evidence of applicable authorization from competent mechanisms.
Authorization may concern:
Resource Access
Operational Use
Technical Compliance
Environmental Conditions
Safety Conditions
Other Applicable Requirements
SRRM verifies the relevant governance references without creating independent authority.
22. Reintegration Execution
Reintegration occurs when the secondary Resource is actually introduced into a subsequent Resource-use process under the applicable conditions.
SRRM should record:
Reintegration Event
Secondary Resource Identity
Receiving Resource System
Quantity Transferred
Location
Time
Applicable Authorization
Operational Evidence
Reintegration State
23. Reintegration Principle
Resource Transferred ≠ Resource Reintegrated by definition.
Transfer may occur without the Resource entering a subsequent operational use.
24. Subsequent Resource Use
Subsequent Resource use concerns the actual consumption or utilization of the secondary Resource.
SRRM preserves the Resource-cycle relationship and relevant use evidence.
RCUS governs the underlying Resource Consumption & Utilization mechanisms.
25. Utilization Principle
Reintegration Completed ≠ Resource Actually Utilized.
A Resource may be installed, stored, or made available without performing its intended function.
26. Resource-Cycle Identity
Each material Resource-use cycle should be identifiable.
Minimum references include:
Cycle ID
Resource ID
Previous Cycle Reference
Recovery Reference
Validation Reference
Reintegration Reference
Subsequent-Use Reference
Cycle Start
Cycle State
Cycle End Where Applicable
27. Resource-Cycle Continuity
Resource-cycle continuity establishes the traceable relationship between successive Resource-use cycles.
Canonical relationship:
Use Cycle 1 → End-of-Use → Recovery → Validation → Reintegration → Use Cycle 2
Where the Resource is subsequently recovered again:
Use Cycle 2 → End-of-Use → Recovery → Validation → Reintegration → Use Cycle 3
Each cycle requires its own evidence.
28. Repeated Recovery Cycles
A Resource may undergo multiple Recovery cycles.
However, the feasibility, quality, quantity, and supporting Resource requirements may change.
Recovery Feasible in Cycle 1 ≠ Recovery Feasible in Cycle 2.
29. Resource Quality Degradation Across Cycles
Repeated Recovery may reduce Resource quality or functional capability.
SRRM should preserve material changes across cycles.
Examples include:
Material Purity Reduction
Mechanical Property Degradation
Battery Capacity Loss
Component Reliability Reduction
Chemical Quality Changes
Other Resource-Specific Degradation
30. Quality Continuity Principle
Resource Recovered Repeatedly ≠ Original Resource Quality Preserved.
31. Resource Quantity Across Cycles
Repeated Resource processing may involve material losses.
SRRM should preserve quantity continuity across cycles where measurement is physically meaningful.
Cycle Throughput ≠ Unique Resource Quantity.
32. Circularity Measurement Boundary
Circularity measurement must identify which lifecycle stages are included.
At minimum, SRRM should distinguish:
Resource Collected
Resource Accepted for Recovery
Resource Processed
Resource Recovered
Resource Validated
Resource Reintegrated
Resource Actually Used in Subsequent Cycle
These are different states.
They must not be combined into a single unsupported Circularity claim.
33. Circularity Performance
Circularity performance concerns the evidenced continuity of Resources across Recovery and subsequent-use cycles.
SRRM may measure:
Reintegrated Quantity
Actually Utilized Secondary Resource Quantity
Number of Evidenced Resource Cycles
Resource Retention Across Cycles
Resource Losses Across Cycles
Quality Changes Across Cycles
Time Between Recovery and Reuse
Measurements must preserve Resource-specific units and boundaries.
34. Circularity Ratio
Where physically compatible and methodologically appropriate, a Circularity indicator may be defined as:
Actual Secondary Resource Utilized / Eligible Secondary Resource Available for the Defined Use
The measurement must specify:
Numerator
Denominator
Resource Type
Physical Unit
Time Period
System Boundary
Evidence Basis
This indicator does not replace other Resource-specific Circularity measurements.
35. Circularity Accounting Principle
Circularity Measurement ≠ Sustainability Measurement.
Circularity concerns evidenced Resource cycles.
Sustainability requires broader consideration of Resource dependencies, losses, constraints, regeneration, resilience, and long-term continuity.
36. Double Counting Prevention
SRRM must prevent the same Resource quantity from being incorrectly counted as multiple independent Resource quantities merely because it passes through several lifecycle stages.
For example:
Collected Quantity + Recovered Quantity + Reintegrated Quantity
must not automatically be reported as three separate quantities of newly created Resource.
37. Double Counting Principle
Repeated Measurement of the Same Resource ≠ Additional Resource Creation.
38. Resource Retention
Resource retention concerns the quantity or capability remaining available for subsequent legitimate use after Recovery and reintegration.
It may be measured through:
Material Retention
Functional Capacity Retention
Energy Capability Retention
Water Quantity Retention
Other Resource-Specific Measures
These measures must preserve their physical meaning.
39. Resource Loss Across Cycles
SRRM should preserve cumulative losses where evidence and measurement boundaries permit.
Losses may arise from:
Recovery Processing
Transport
Storage
Degradation
Subsequent Use
Disposal
Other Resource-Specific Events
40. Cross-Resource Recovery Burden
Repeated Recovery may consume other constrained Resources.
Examples include:
Electricity
Water
Heat
Chemicals
Materials
Infrastructure Capacity
SRRM should preserve the relevant supporting evidence for subsequent cross-resource evaluation.
41. Cross-Resource Principle
High Circularity of Resource A ≠ Net Sustainability Benefit for the Resource System.
RIRS and RCSS govern broader interdependency and Sustainability consequences.
42. Circularity Claim Governance
Circularity claims must identify what has actually been evidenced.
Examples:
Resource Collected
Resource Processed
Resource Recovered
Resource Validated
Resource Reintegrated
Resource Utilized in Subsequent Cycle
A claim must not represent one state as another.
43. Claim Boundary Principle
Recyclable ≠ Recycled.
Recovered ≠ Reintegrated.
Reintegrated ≠ Actually Utilized.
Actually Utilized Once ≠ Indefinitely Circular.
44. Secondary Resource Monitoring
SRRM should monitor materially relevant changes after reintegration.
Examples include:
Resource Condition
Actual Use
Performance
Quantity
Quality
Restrictions
Degradation
New End-of-Use Events
Monitoring must remain proportionate to the Resource and operational context.
45. Subsequent End-of-Use
A secondary Resource may eventually reach another End-of-Use state.
At that point, its new residual condition may be recognized through ERRM.
The previous Resource-cycle history must remain traceable.
46. Resource-Cycle Reentry
Canonical relationship:
Secondary Resource Use → Subsequent End-of-Use → ERRM → RPMM → RURPM → RRRGM → SRRM
The cycle may repeat where evidence and applicable conditions support further Recovery.
47. Cycle Reentry Principle
Previous Recovery Success ≠ Future Recovery Authorization or Feasibility.
Every new cycle requires applicable reassessment.
48. Circularity Evidence
SRRM should preserve evidence concerning:
Secondary Resource Identity
Recovery History
Validation State
Reintegration Readiness
Authorization References
Reintegration Event
Actual Subsequent Use
Resource Quantity
Resource Quality
Cycle Identity
Cycle Continuity
Losses
Restrictions
Reassessment
49. Evidence Provenance
Evidence should preserve:
Source
Method
Time
Location
Resource Reference
Cycle Reference
Responsible Evidence Origin
Version:
Evidence Content ≠ Methodology Instruction.
50. Evidence Sufficiency
Circularity must not be declared where the relevant Resource-cycle evidence is insufficient.
Missing Reintegration Evidence ≠ Successful Reintegration.
Missing Subsequent-Use Evidence ≠ Demonstrated Circularity.
51. Conflicted Circularity Evidence
Material conflicts may concern:
Resource Identity
Quantity
Reintegration Status
Actual Use
Cycle History
Validation State
Losses
Resource Condition
SRRM must preserve unresolved conflicts.
52. Circularity Uncertainty
SRRM should preserve uncertainty concerning:
Resource-Cycle Identity
Resource Quantity
Actual Utilization
Quality Degradation
Cycle Continuity
Supporting Resource Burden
Future Recovery Potential
53. Minimum Reintegration States
At minimum:
Secondary Resource Candidate
Secondary Resource Classified
Reintegration Readiness Pending
Reintegration Ready
Reintegration Conditionally Ready
Reintegration Not Ready
Reintegration Authorization Pending
Reintegration Authorized
Reintegration Not Authorized
Reintegration In Progress
Reintegration Completed
Reintegration Failed
Reintegration Evidence-Limited
Reintegration Conflicted
Reintegration Unknown
Reassessment Required
54. Minimum Circularity States
At minimum:
Circularity Not Assessed
Recovery Evidenced
Validation Evidenced
Reintegration Evidenced
Subsequent Use Evidenced
Cycle Continuity Evidenced
Circularity Partially Evidenced
Circularity Evidence-Limited
Circularity Conflicted
Circularity Unknown
Circularity Reassessment Required
These states must not be interpreted as universal Sustainability classifications.
55. Secondary Resource Reintegration & Circularity Profile
The principal governed output is the:
Secondary Resource Reintegration & Circularity Profile
It provides the evidence-based record of secondary Resource identity, reintegration conditions, actual subsequent use, and Resource-cycle continuity.
56. Minimum Profile Fields
At minimum:
Reintegration Profile ID
Secondary Resource ID
Recovered Resource ID
Original Resource Reference
Recovery Process Reference
Validation Profile Reference
Resource Type
Resource Quantity
Measurement Unit
Resource Quality
Resource Condition
Resource Location
Secondary Resource Classification
Classification Evidence
Intended Subsequent Use
Subsequent-Use Requirements
Reintegration Readiness State
Availability Reference
Access Reference
Allocation Reference
Substitution Validity Reference
Reintegration Authorization Reference
Receiving Resource System
Reintegration Event
Reintegration Time
Reintegrated Quantity
Reintegration State
Actual Subsequent-Use Evidence
Actually Utilized Quantity
Resource-Cycle ID
Previous Cycle Reference
Current Cycle State
Cycle Quality Change
Cycle Quantity Change
Resource Losses
Supporting Resource Burden Reference
Circularity Measurement Boundary
Circularity Evidence State
Circularity Uncertainty
Circularity Conflict
Reassessment Trigger
Effective Time
Version:
57. Minimum Implementation Framework
A minimum operational SRRM implementation should contain nine governed layers.
Layer 1 — Validated Resource Basis
Establish the recovered Resource identity, validation state, quantity, quality, provenance, and applicable restrictions.
Layer 2 — Secondary Resource Classification
Determine whether the recovered Resource satisfies the conditions for secondary Resource classification.
Layer 3 — Reintegration Readiness
Assess whether the Resource is prepared for the proposed subsequent use.
Layer 4 — Subsequent-Use Requirements
Identify the receiving Resource system and its applicable quality, quantity, compatibility, location, and timing requirements.
Layer 5 — Governance References
Preserve applicable Availability, Access, Allocation, substitution, and reintegration authorization references.
Layer 6 — Reintegration Execution
Record the actual reintegration event, Resource quantity, receiving system, time, location, and operational evidence.
Layer 7 — Subsequent-Use Evidence
Establish whether and how the secondary Resource was actually utilized.
Layer 8 — Circularity & Cycle Continuity
Preserve Resource-cycle identity, quality changes, quantity retention, losses, and Circularity evidence without double counting.
Layer 9 — Governed Output
Produce the Secondary Resource Reintegration & Circularity Profile .
58. Minimum Decision States
At minimum:
Secondary Resource Candidate
Secondary Resource Classified
Reintegration Not Ready
Reintegration Conditionally Ready
Reintegration Ready
Reintegration Authorization Pending
Reintegration Not Authorized
Reintegration Authorized
Reintegration In Progress
Reintegration Completed
Reintegration Failed
Subsequent Use Not Established
Subsequent Use Evidenced
Circularity Partially Evidenced
Circularity Evidenced Within Defined Boundary
Circularity Evidence-Limited
Circularity Conflicted
Circularity Unknown
Reassessment Required
59. Minimum Evidence Path
Where reintegration or Circularity cannot be sufficiently established:
Validated Recovered Resource → Secondary Resource Classification → Reintegration Readiness → Availability / Access / Allocation / Authorization References → Reintegration Evidence → Subsequent-Use Evidence → Circularity Evidence-Limited / Conflicted / Unknown → Missing Evidence Identification → Evidence Acquisition →
Resource-Cycle Review → Circularity-State Determination → Secondary Resource Reintegration & Circularity Profile
Unsupported Circularity claims must not be converted into evidenced Resource-cycle continuity.
60. Minimum Reassessment Framework
Current Secondary Resource Reintegration & Circularity Profile → New Resource / Validation / Availability / Authorization / Reintegration / Utilization / Cycle Evidence → Materiality Assessment → Reintegration-State Review → Resource-Cycle Review → Circularity Measurement Review → Evidence Reassessment → Profile Update → Version Update
Reassessment may be triggered by:
Changed Resource validation. Resource degradation. Changed intended use. New Access restrictions. Changed Allocation. Revoked authorization. Failed reintegration. New subsequent-use evidence. Incorrect Resource quantity. Newly identified Resource losses. Double-counting discovery. New Recovery cycle. Changed Resource quality. Conflicting cycle evidence.
61. Governance Requirements
A conforming SRRM implementation must satisfy the following requirements.
Secondary Resource Identity
1. Identify the validated recovered Resource. 2. Preserve the Recovery process reference. 3. Preserve the validation profile. 4. Preserve original Resource provenance. 5. Establish secondary Resource identity. 6. Preserve Resource Type. 7. Preserve Resource quantity. 8. Preserve Resource quality and condition. 9. Preserve applicable restrictions. 10. Maintain traceability across Resource classifications.
Reintegration Readiness
11. Assess reintegration readiness. 12. Preserve intended-use requirements. 13. Preserve Resource compatibility evidence. 14. Preserve relevant quality requirements. 15. Preserve location and timing conditions. 16. Support conditional readiness. 17. Support Not Ready states. 18. Prevent readiness from being treated as authorization.
Governance References
19. Preserve Resource Availability references. 20. Preserve Resource Access references.
21. Preserve Resource Allocation references. 22. Preserve substitution validity references. 23. Preserve reintegration authorization references. 24. Prevent secondary Resource existence from establishing Access. 25. Prevent availability from establishing Allocation. 26. Prevent substitution validity from establishing authorization.
Reintegration Execution
27. Record the reintegration event. 28. Identify the receiving Resource system. 29. Preserve reintegrated quantity. 30. Preserve reintegration time and location. 31. Preserve operational evidence. 32. Support failed reintegration states. 33. Distinguish Resource transfer from actual reintegration. 34. Preserve unresolved reintegration conditions.
Subsequent Use
35. Preserve subsequent Resource-use references. 36. Distinguish reintegration from utilization. 37. Record actual utilization evidence. 38. Preserve actually utilized quantity where measurable. 39. Preserve Resource condition during subsequent use where material. 40. Support subsequent End-of-Use recognition.
Circularity and Cycle Continuity
41. Establish Resource-cycle identity. 42. Preserve previous cycle references. 43. Preserve Recovery history. 44. Preserve validation history. 45. Preserve reintegration history. 46. Preserve actual subsequent-use evidence. 47. Preserve Resource quality changes. 48. Preserve Resource quantity changes. 49. Preserve Resource losses. 50. Prevent double counting. 51. Distinguish collected, processed, recovered, validated, reintegrated, and utilized quantities. 52. Preserve Circularity measurement boundaries. 53. Prevent one successful cycle from establishing unlimited Circularity.
Evidence and Reassessment
54. Preserve Circularity evidence. 55. Preserve evidence provenance. 56. Evaluate evidence sufficiency. 57. Support Evidence-Limited states. 58. Support Conflicted states. 59. Support Unknown states. 60. Preserve material uncertainty. 61. Support Resource-cycle reassessment. 62. Preserve reassessment triggers. 63. Preserve material version history. 64. Preserve effective time.
Governance Boundaries
65. Preserve ERRM Resource Recognition boundaries. 66. Preserve RPMM Recovery Potential boundaries. 67. Preserve RURPM Recovery Process boundaries. 68. Preserve RRRGM Validation boundaries. 69. Preserve RACS Availability boundaries.
70. Preserve RAGS Access boundaries. 71. Preserve RPAS Allocation boundaries. 72. Preserve RSFS Substitution boundaries. 73. Preserve RCUS Consumption & Utilization boundaries. 74. Preserve RIRS Interdependency & Resilience boundaries. 75. Preserve RCSS Sustainability boundaries. 76. Preserve independent Value, Harm, and Liability governance. 77. Produce a Secondary Resource Reintegration & Circularity Profile.
62. Governance Logic
Canonical SRRM logic:
Validated Recovered Resource → Secondary Resource Classification → Reintegration Readiness → Subsequent- Use Requirements → Availability / Access / Allocation / Substitution / Authorization References → Reintegration Execution → Subsequent Resource Use → Resource-Cycle Identity → Circularity Evidence → Quantity / Quality / Loss Review → Circularity-State Determination → Secondary Resource Reintegration & Circularity Profile → Monitoring → Reassessment → Subsequent End-of-Use Where Applicable
63. Governance Outputs
SRRM may produce:
Secondary Resource Reintegration & Circularity Profile
Secondary Resource Identity Record
Secondary Resource Classification Record
Reintegration Readiness State
Subsequent-Use Requirements Record
Availability Reference
Access Reference
Allocation Reference
Substitution Validity Reference
Reintegration Authorization Reference
Reintegration Event Record
Reintegrated Quantity Record
Receiving Resource System Reference
Subsequent Resource-Use Evidence
Actually Utilized Quantity Record
Resource-Cycle Identity
Resource-Cycle Continuity Record
Resource Quality Change Record
Resource Quantity Change Record
Resource Loss Record
Circularity Measurement Boundary
Circularity Evidence State
Circularity Uncertainty
Circularity Conflict
Reassessment Trigger
Version:
64. Critical Distinctions
Validated Recovered Resource ≠ Reintegrated Resource.
Reintegration Ready ≠ Reintegration Authorized.
Available Secondary Resource ≠ Allocated Secondary Resource.
Reintegrated Resource ≠ Actually Utilized Resource.
One Successful Recovery Cycle ≠ Unlimited Circularity.
New Resource Classification ≠ Loss of Resource Origin.
Technically Ready ≠ Operationally Available.
Operationally Available ≠ Authorized for Reintegration.
Validated for Use A ≠ Compatible With Use B.
Secondary Resource Existence ≠ Resource Access Permission.
Secondary Resource Availability ≠ Allocation Authorization.
Secondary Resource Availability ≠ Substitution Validity.
Substitution Validity ≠ Substitution Authorization.
Resource Transferred ≠ Resource Reintegrated by definition.
Reintegration Completed ≠ Resource Actually Utilized.
Recovery Feasible in Cycle 1 ≠ Recovery Feasible in Cycle 2.
Resource Recovered Repeatedly ≠ Original Resource Quality Preserved.
Cycle Throughput ≠ Unique Resource Quantity.
Circularity Measurement ≠ Sustainability Measurement.
Repeated Measurement of the Same Resource ≠ Additional Resource Creation.
High Circularity of Resource A ≠ Net Sustainability Benefit for the Resource System.
Recyclable ≠ Recycled.
Recovered ≠ Reintegrated.
Reintegrated ≠ Actually Utilized.
Actually Utilized Once ≠ Indefinitely Circular.
Previous Recovery Success ≠ Future Recovery Authorization or Feasibility.
Missing Reintegration Evidence ≠ Successful Reintegration.
Missing Subsequent-Use Evidence ≠ Demonstrated Circularity.
65. Use Case 1 — Recovered AI Data Center Hardware Reintegration
An AI data center retires accelerator servers.
The hardware passes through Resource Recognition, Recovery Potential assessment, Recovery processing, and recovered Resource validation.
RRRGM validates selected refurbished accelerator cards for lower-demand computational applications.
SRRM governs their reintegration.
Secondary Resource: Refurbished Accelerator Card
Validated Use: Lower-Demand Compute
Receiving Resource System: Secondary Computing Infrastructure
Reintegration Requirements:
Applicable hardware compatibility. Validated functional performance. Available installation capacity. Authorized Resource Access. Applicable Allocation decision. Operational installation evidence. Actual subsequent-use evidence.
SRRM records the installation of the accelerator cards into the receiving system.
However, installation alone does not prove utilization.
The module preserves whether the cards actually performed subsequent computational work.
Hardware Installed ≠ Hardware Utilized.
Where subsequent use is evidenced, SRRM establishes the Resource-cycle continuity:
Original AI Compute Use → Hardware Retirement → Recovery → Validation → Secondary Compute Reintegration → Subsequent Compute Use
This establishes an evidenced additional Resource-use cycle without claiming indefinite hardware Circularity.
66. Use Case 2 — Recovered Industrial Water Reintegration
An industrial facility recovers wastewater through an authorized treatment process.
RRRGM validates the recovered water for a defined industrial cooling application.
SRRM governs the return of that water to the industrial system.
Secondary Resource: Recovered Industrial Water
Validated Use: Industrial Cooling
Receiving Resource System: Industrial Cooling Circuit
Reintegration Requirements:
Validated water quality. Available storage and distribution capacity. Applicable Access and operational authorization. Compatible cooling-system requirements. Measured reintegrated volume. Actual cooling-water utilization evidence.
SRRM distinguishes:
Water Recovered
Water Validated
Water Stored
Water Reintegrated
Water Actually Used
The module prevents the same water volume from being counted as several independent quantities of newly available water.
It establishes the traceable Resource cycle:
Industrial Water Use → Wastewater → Recovery → Validation → Cooling-System Reintegration → Subsequent Water Use
This demonstrates Resource continuity within a defined operational boundary.
It does not automatically establish that the complete water system is sustainable.
67. Cross-Architecture Boundary
SRRM receives evidence from:
ERRM — End-of-Use Resource Recognition Module
RPMM — Resource Recovery Potential Module
RURPM — Resource Recovery Process Module
RRRGM — Recovered Resource Recognition & Governance Module
It may consume supporting evidence from:
RCHS — Resource Characterization Standard
RACS — Resource Availability & Capacity Standard
RDGS — Resource Demand Governance Standard
RDCS — Resource Dependency & Criticality Standard
RAGS — Resource Access Governance Standard
RPAS — Resource Prioritization & Allocation Standard
RCUS — Resource Consumption & Utilization Standard
RSCS — Resource Scarcity & Constraint Standard
Its outputs may support:
RSFS — Resource Substitution & Flexibility Standard
RIRS — Resource Interdependency & Resilience Standard
RCSS — Resource Continuity & Sustainability Standard
Relevant external architectural relationships include:
ORA™ — Operational Reality Architecture
VEGA™ — Value Execution Governance Architecture
PGA™ — Prediction Governance Architecture
HAGA™ — Harm Governance Architecture
LIGA™ — Liability Governance Architecture
SRRM governs secondary Resource reintegration and Circularity evidence.
It does not absorb the independent mechanisms governing Access, Allocation, substitution, Value, Harm, Liability, or Sustainability.
68. Cross-Architecture Mechanism Principle
An operational mechanism may produce inputs for multiple governance architectures, but it belongs only to the architecture whose governed domain includes that mechanism itself. Other architectures govern only its domain- specific relevance or consequences.
Secondary Resource reintegration may produce evidence relevant to Resource Availability, Consumption, substitution, resilience, and long-term Sustainability.
SRRM governs the Resource Recovery-to-reuse continuity and its Circularity evidence.
Other architectures govern their respective downstream decisions and consequences.
69. Canonical Boundary
SRRM governs how validated recovered Resources are classified, prepared, traced, assessed for reintegration readiness, connected to legitimate subsequent Resource-use requirements, reintegrated under applicable governance conditions, monitored through subsequent use, and evidenced across successive Resource cycles.
It does not independently determine Resource Access rights, Allocation priority, substitution authorization, technical certification, operational safety, Value eligibility, Harm, Liability, or long-term Sustainability.
Its principal governed output is the Secondary Resource Reintegration & Circularity Profile .
70. Canonical Closing Statement
A Resource does not become circular merely because it has been collected, processed, recovered, or validated. Circularity requires evidence that Resource capability has legitimately continued into another use cycle, with its identity, quantity, quality, restrictions, and losses remaining traceable.
SRRM establishes the governance continuity between validated Recovery and subsequent Resource use — ensuring that Circularity is demonstrated through actual Resource reintegration and utilization rather than inferred from Recovery potential, processing activity, or unsupported recycling claims.