RRVM — Resource Vulnerability & Resilience Capacity

Module

Architecture:

RSGA™ — Resource Sustainability Governance Architecture

Parent Standard:

RIRS — Resource Interdependency & Resilience Standard

Category:

Governance & Enforcement

Subcategory:

Resource Governance

Type:

Core Module

Governed Space:

Resource System Vulnerability & Resilience Capacity Governance

Module ID:

RSGA-RIRS-RRVM-03

Origin ID:

OOF-RSGA-RIRS-RRVM

Version:

1.0

Status:

Canonical Open

Effective Date:

9 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

RRVM — Resource Vulnerability & Resilience Capacity Module is the Core Module within RIRS that governs how the vulnerability of interconnected Resource Systems and their available capacity to absorb, tolerate, contain, and withstand defined Resource disturbances are identified, assessed, bounded, evidenced, classified, and reassessed against actual dependency structures, required operational functions, disturbance conditions, Resource buffers, redundancy, pathway independence, and supporting Resource constraints.

RRVM establishes the methodological conditions under which a Resource System's exposure to disturbance may be distinguished from its actual vulnerability and its nominal resilience arrangements from demonstrably usable resilience capacity.

It evaluates the relationship between the Resource System's required operational functions, relevant disturbance scenarios, structural weaknesses, available protective capacity, and the operational limits within which those functions may remain supported.

RRVM does not independently authorize protective interventions, execute Resource substitutions, govern recovery operations, or establish long-term Resource Sustainability.

Disturbance Exposure ≠ Resource System Vulnerability.

Nominal Backup Capacity ≠ Usable Resilience Capacity.

Resource Redundancy ≠ Resource Resilience.

Disturbance Tolerated Under Defined Conditions ≠ Universal Resilience Demonstrated.

2. Operational Role

RRVM governs the assessment of Resource System vulnerability and available resilience capacity before, during, or after relevant disturbances.

Its operational role is to establish:

Resource System assessment identity. Required operational functions. Relevant dependency network. Applicable disturbance scenarios. Disturbance exposure. Structural vulnerability. Functional vulnerability. Dependency concentration. Shared failure exposure. Disturbance tolerance.

Available Resource buffers. Resource redundancy. Resource diversity. Pathway independence. Usable backup capacity. Resilience capacity. Resilience capacity constraints. Supporting Resource requirements. Resilience capacity duration. Capacity exhaustion conditions. Residual vulnerability. Evidence sufficiency. Vulnerability classification. Resilience capacity classification. Monitoring and reassessment. Downstream response and recovery handoffs.

RRVM evaluates whether resilience capacity exists and is usable under defined conditions.

It does not itself activate that capacity.

3. Core Question

How should the vulnerability of an interconnected Resource System and its available capacity to withstand defined disturbances be evaluated so that disturbance exposure, dependency concentration, functional sensitivity, usable buffers, redundant capacity, pathway independence, supporting Resource requirements, and residual vulnerabilities remain distinguishable from theoretical protection, nominal backup arrangements, unverified readiness, or unsupported claims of system-level resilience?

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

RIRS Core Module Flow

1. RIDM — Resource Interdependency Mapping Module 2. RDPM — Resource Disturbance & Propagation Module 3. RRVM — Resource Vulnerability & Resilience Capacity Module 4. Resource Response & Recovery Governance 5. Resource Resilience Validation & Monitoring Governance

The subsequent two positions describe governed functions; their canonical module names and identifiers are established through their respective final modules.

RRVM occupies the third governance position within RIRS.

It receives the Resource Interdependency Network Profile from RIDM and the Resource Disturbance & Propagation Profile from RDPM.

It evaluates vulnerability and usable resilience capacity under the relevant disturbance conditions.

Its outputs support subsequent response readiness, recovery, validation, and continuity governance.

Resource Interdependency Network → Disturbance Propagation → Vulnerability Assessment → Resilience Capacity Assessment → Resource Vulnerability & Resilience Capacity Profile → Response & Recovery Governance Handoff

5. Governed Space

Resource System Vulnerability & Resilience Capacity Governance

This governed space concerns the susceptibility of interconnected Resource Systems to defined disturbances and their available capacity to preserve required operational functions despite those disturbances.

It includes:

Structural vulnerability. Functional vulnerability. Disturbance sensitivity. Dependency concentration. Shared failure exposure. Disturbance tolerance. Resource buffers. Redundant capacity. Resource diversity. Pathway independence. Usable resilience capacity. Capacity duration. Supporting Resource constraints. Residual vulnerability. Evidence-based classification. Reassessment.

It does not independently govern disturbance origin, propagation causation, operational response execution, recovery execution, or final Sustainability determination.

6. Governed Object

The primary Governed Object is:

A Resource Vulnerability & Resilience Capacity Configuration connecting an identifiable Resource System, its required operational functions, applicable disturbance scenarios, dependency structures, vulnerability conditions, available protective Resource arrangements, usable resilience capacity, capacity limitations, and residual vulnerabilities within a defined operational and evidentiary boundary.

The configuration must preserve the distinction between:

Disturbance Exposure

Structural Vulnerability

Functional Vulnerability

Nominal Protective Capacity

Operationally Usable Resilience Capacity

Residual Vulnerability

A configuration may concern an entire Resource System, a defined subsystem, or a particular operational function.

7. Scope

RRVM governs:

Resource System identity. Assessment boundary. Operational function requirements. Dependency network references. Disturbance scenario references.

Disturbance exposure. Structural vulnerability. Functional vulnerability. Disturbance tolerance. Resource buffers. Resource redundancy. Resource diversity. Pathway independence. Backup capacity. Supporting Resource requirements. Capacity availability references. Capacity duration. Capacity exhaustion. Protective capacity limitations. Residual vulnerability. Evidence sufficiency. Vulnerability classification. Resilience capacity classification. Monitoring. Reassessment. Downstream governance handoffs.

RRVM does not independently establish Resource Access, Allocation, substitution authorization, operational response, recovery completion, Harm, Liability, or Sustainability.

8. Foundational Governance Principles

8.1 Exposure–Vulnerability Separation

Disturbance Exposure ≠ Demonstrated Vulnerability.

8.2 Structural Integrity Principle

Resource Network Connectivity ≠ Resource System Vulnerability by Default.

8.3 Capacity Reality Principle

Nominal Capacity ≠ Usable Resilience Capacity.

8.4 Redundancy Separation Principle

Backup Resource Exists ≠ Backup Resource Can Preserve the Required Function.

8.5 Independence Principle

Multiple Resource Pathways ≠ Independent Failure Pathways.

8.6 Duration Principle

Temporary Capacity ≠ Sustained Disturbance Tolerance.

8.7 Residual Vulnerability Principle

Protective Capacity Identified ≠ Vulnerability Eliminated.

8.8 Scenario Boundary Principle

Resilience Capacity Under One Scenario ≠ Resilience Capacity Under Every Scenario.

9. Resource System Identity

Every RRVM assessment must identify the Resource System.

Minimum elements include:

Resource System ID

System Function

Operational Context

Assessment Boundary

Required Operational Functions

Resource Interdependency Network Reference

Disturbance Scenario Reference

Relevant Time

Location

Evidence Basis

10. Assessment Boundary

The assessment boundary establishes which Resource relationships, operational functions, disturbance conditions, and protective arrangements are included.

Relevant dimensions include:

Physical Boundary

Operational Boundary

Resource Boundary

Dependency Boundary

Disturbance Boundary

Temporal Boundary

Geographic Boundary

Evidence Boundary

11. Boundary Integrity

Vulnerability Assessed Within Defined Boundary ≠ All System Vulnerabilities Assessed.

Unknown or excluded dependencies must remain identifiable where material.

12. Required Operational Functions

RRVM must identify the functions that resilience capacity is expected to preserve.

Examples include:

Computational Processing

Cooling

Water Supply

Industrial Production

Energy Distribution

Material Processing

Transport Operations

Other Resource-Supported Functions

The function's operational requirements must remain explicit.

13. Functional Requirement Integrity

Function Operating at Reduced Capacity ≠ Original Functional Requirement Satisfied.

Permitted degradation must be distinguished from unapproved reduction of the required function.

14. Dependency Network Reference

RRVM must preserve the relevant Resource Interdependency Network Profile established through RIDM.

It may use:

Resource Nodes

Supporting Infrastructure

Dependency Relationships

Shared Dependencies

Critical Pathway References

Alternative Pathways

Unknown Dependencies

RRVM does not independently redefine the network mapping mechanism.

15. Disturbance Scenario Reference

RRVM must preserve the relevant disturbance scenario or observed disturbance from RDPM.

Relevant elements include:

Disturbance Type

Disturbance Origin

Magnitude

Duration

Timing

Affected Nodes

Propagation Pathways

Operating Conditions

Evidence State

16. Scenario Integrity

Scenario Defined ≠ Scenario Operationally Validated.

17. Disturbance Exposure

Disturbance exposure concerns whether the Resource System may be affected by a defined disturbance.

Exposure may arise from:

Direct Resource Dependency

Indirect Resource Dependency

Shared Supporting Infrastructure

Common-Cause Conditions

Capacity Constraints

Geographic Conditions

Operational Configuration

Exposure does not automatically establish material vulnerability.

18. Exposure Principle

Disturbance Exposure ≠ Operational Failure Inevitable.

19. Structural Vulnerability

Structural vulnerability concerns weaknesses arising from the configuration of Resource dependencies.

Examples include:

Dependency Concentration

Shared Supporting Resources

Single Supporting Pathway

Limited Alternative Pathways

Common-Cause Exposure

Unverified Pathway Independence

Critical Supporting Infrastructure

Structural vulnerability must be evaluated against actual operational requirements.

20. Structural Vulnerability Principle

Single Dependency Identified ≠ Unacceptable Vulnerability Automatically Established.

A dependency's significance depends on the function, disturbance, tolerance, and available protective capacity.

21. Functional Vulnerability

Functional vulnerability concerns the susceptibility of required operational functions to disturbance-related degradation or interruption.

Relevant elements include:

Required Resource Capacity

Minimum Operating Conditions

Permitted Degradation

Disturbance Sensitivity

Functional Tolerance

Supporting Resource Availability

22. Functional Vulnerability Principle

Resource Capacity Reduced ≠ Operational Function Necessarily Failed.

23. Dependency Concentration

Dependency concentration may increase vulnerability when multiple required functions rely on a limited supporting Resource arrangement.

RRVM must distinguish concentration from its actual consequences under a defined disturbance.

High Dependency Concentration ≠ High Vulnerability Without Context.

24. Shared Failure Exposure

Shared failure exposure concerns whether multiple protective or operational arrangements may be affected by the same disturbance.

Examples include:

Shared Electricity Infrastructure

Shared Cooling Infrastructure

Shared Water Treatment

Shared Transport Corridor

Shared Control System

25. Shared Failure Principle

Multiple Backup Systems ≠ Multiple Independent Protective Systems.

26. Disturbance Sensitivity

Disturbance sensitivity concerns how operational performance changes in response to disturbance magnitude, duration, or conditions.

Relevant dimensions include:

Capacity Sensitivity

Quality Sensitivity

Timing Sensitivity

Duration Sensitivity

Environmental Sensitivity

Infrastructure Sensitivity

27. Sensitivity Principle

Low Sensitivity to One Disturbance ≠ Low Sensitivity to Every Disturbance.

28. Disturbance Tolerance

Disturbance tolerance concerns the ability to preserve defined operational requirements under specified disturbance conditions.

Relevant elements include:

Disturbance Magnitude

Disturbance Duration

Available Buffer Capacity

Permitted Performance Degradation

Minimum Functional Requirement

Supporting Resource Conditions

29. Tolerance Integrity

Disturbance Tolerated Temporarily ≠ Disturbance Tolerated Indefinitely.

30. Resource Buffers

Resource buffers may temporarily absorb disturbance effects.

Examples include:

Stored Water

Stored Energy

Material Inventory

Thermal Storage

Computational Reserve Capacity

Production Inventory

Buffers must be evaluated against their actual usability.

31. Buffer Capacity

Buffer capacity may depend on:

Stored Quantity

Usable Quantity

Required Consumption Rate

Access Conditions

Infrastructure Readiness

Quality Conditions

Time Constraints

32. Buffer Principle

Stored Resource Quantity ≠ Usable Resource Buffer.

33. Buffer Duration

Buffer duration concerns how long an available buffer can support required functions under defined conditions.

Relevant elements include:

Available Quantity

Required Demand

Losses

Operational Constraints

Replenishment Conditions

Disturbance Duration

34. Buffer Duration Principle

Buffer Available ≠ Buffer Sufficient for the Disturbance Duration.

35. Resource Redundancy

Resource redundancy concerns additional Resource arrangements capable of supporting the required function.

RRVM evaluates whether redundancy contributes usable resilience capacity.

Relevant elements include:

Redundant Resource Identity

Supported Function

Nominal Capacity

Available Capacity

Supporting Dependencies

Activation Requirements

Operating Conditions

36. Redundancy Principle

Redundant Resource Installed ≠ Redundant Resource Operationally Usable.

37. Resource Diversity

Resource diversity concerns different Resource sources, technologies, configurations, or pathways supporting an operational function.

Diversity may reduce vulnerability under certain disturbances.

However, it does not automatically establish independent failure exposure.

38. Diversity Principle

Resource Diversity ≠ Disturbance Independence.

39. Pathway Independence

Pathway independence concerns whether alternative Resource arrangements remain functionally separate under relevant disturbances.

RRVM evaluates independence using evidence concerning:

Supporting Resources

Infrastructure

Failure Exposure

Operational Conditions

Shared Control Dependencies

Geographic Conditions

40. Independence Integrity

Physically Separate Equipment ≠ Independent Supporting Resource Pathways.

41. Nominal Backup Capacity

Nominal backup capacity represents the stated or designed capacity of a backup Resource arrangement.

It must remain distinguishable from usable capacity.

Rated Backup Capacity ≠ Available Backup Capacity.

42. Usable Backup Capacity

Usable backup capacity concerns the capacity that can actually support the required operational function under the defined disturbance.

Relevant elements include:

Available Resource Quantity

Available Infrastructure Capacity

Operating Conditions

Supporting Resource Availability

Required Activation Time

Applicable Restrictions

Evidence Basis

43. Capacity Availability Boundary

RRVM uses Resource availability and capacity evidence governed by RACS.

It does not independently redefine Resource availability.

Capacity Exists ≠ Capacity Available Under Disturbance Conditions.

44. Resilience Capacity

Resilience capacity concerns the usable ability of the Resource System to preserve required functions despite a defined disturbance.

It may arise from:

Available Resource Buffers

Usable Redundant Capacity

Independent Resource Pathways

Available Flexibility

Operational Tolerance

Supporting Resource Capacity

Permitted Degradation

Resilience capacity must remain scenario-specific.

45. Resilience Capacity Integrity

Resilience Mechanism Identified ≠ Resilience Capacity Demonstrated.

46. Supporting Resource Requirements

Protective arrangements may require additional Resources.

Examples include:

Backup Electricity Requires Fuel

Alternative Cooling Requires Electricity

Water Storage Requires Pumping

Redundant Computing Requires Cooling

Emergency Transport Requires Fuel and Infrastructure

These supporting requirements must remain visible.

47. Supporting Resource Principle

Protective Resource Available ≠ Supporting Resources Available.

48. Capacity Duration

Resilience capacity may be time-limited.

Relevant elements include:

Usable Resource Quantity

Consumption Rate

Replenishment Capability

Supporting Resource Availability

Operational Load

Disturbance Duration

49. Duration Integrity

Resilience Capacity Sufficient for One Hour ≠ Resilience Capacity Sufficient for One Day.

50. Capacity Exhaustion

Capacity exhaustion occurs when available protective capacity becomes insufficient to preserve required functions.

Potential causes include:

Resource Depletion

Increased Demand

Supporting Resource Failure

Infrastructure Constraints

Extended Disturbance

Quality Degradation

RRVM must preserve relevant exhaustion conditions.

51. Exhaustion Principle

Protective Capacity Initially Sufficient ≠ Protective Capacity Sufficient Throughout the Disturbance.

52. Protective Capacity Constraints

Protective capacity may be constrained by:

Access Restrictions

Allocation Conditions

Infrastructure Limits

Resource Quality

Time Constraints

Environmental Conditions

Supporting Resource Dependencies

Operational Readiness

These constraints must remain explicit.

53. Constraint Integrity

Protective Capacity Technically Possible ≠ Protective Capacity Operationally Available.

54. Capacity Competition

Multiple operational functions may compete for the same protective Resource capacity.

Examples include:

Computing and Cooling Sharing Backup Electricity

Production and Safety Systems Sharing Stored Water

Multiple Facilities Sharing Emergency Fuel

RRVM identifies capacity competition as a resilience limitation.

Allocation decisions remain governed by RPAS.

55. Capacity Competition Principle

Shared Backup Capacity ≠ Full Backup Capacity Available to Every Dependent Function Simultaneously.

56. Partial Functional Preservation

A Resource System may preserve some required functions while others degrade.

RRVM must distinguish:

All Required Functions Preserved

Priority Functions Preserved

Partial Function Preservation

Function Degradation

Function Failure

Priority designations must derive from competent governance references.

57. Partial Preservation Principle

Some Functions Preserved ≠ Entire Resource System Resilient.

58. Residual Vulnerability

Residual vulnerability concerns the vulnerability remaining after available resilience capacity is considered.

Relevant elements include:

Unresolved Shared Dependencies

Insufficient Backup Capacity

Limited Buffer Duration

Unverified Pathway Independence

Capacity Competition

Supporting Resource Constraints

Unknown Protective Capability

59. Residual Vulnerability Principle

Resilience Capacity Identified ≠ Residual Vulnerability Eliminated.

60. Vulnerability Classification

RRVM may classify vulnerability as:

Not Assessed

Vulnerability Identified

Conditionally Vulnerable

Partially Vulnerable

Vulnerability Within Defined Tolerance

Vulnerability Exceeds Defined Tolerance

Evidence-Limited

Conflicted

Unknown

Reassessment Required

Classification must remain tied to the relevant disturbance scenario and operational function.

61. Resilience Capacity Classification

RRVM may classify resilience capacity as:

Not Assessed

Capacity Identified

Capacity Conditionally Available

Capacity Available Within Defined Conditions

Capacity Partially Sufficient

Capacity Insufficient

Capacity Time-Limited

Capacity Degraded

Capacity Exhausted

Evidence-Limited

Conflicted

Unknown

Reassessment Required

No classification may imply universal resilience.

62. Evidence Provenance

RRVM may use:

Resource Availability Records

Capacity Measurements

Infrastructure Documentation

Operational Test Records

Resource Storage Records

Backup Equipment Records

Dependency Network Evidence

Disturbance Propagation Evidence

Operational Observations

Validated Simulation Evidence

Each evidence source must remain identifiable.

63. Evidence Sufficiency

Evidence sufficiency concerns whether available evidence supports the vulnerability or resilience capacity conclusion.

Relevant dimensions include:

Source Reliability

Operational Relevance

Time Validity

Scenario Relevance

Capacity Verification

Supporting Resource Verification

Condition Coverage

Known Limitations

64. Evidence Sufficiency Principle

Protective Arrangement Documented ≠ Protective Capacity Operationally Verified.

65. Simulation Evidence

Simulation may support vulnerability and resilience capacity assessment.

Relevant elements include:

Scenario Assumptions

Resource Network Model

Capacity Inputs

Disturbance Inputs

Protective Mechanisms

Functional Requirements

Model Validation

Uncertainty

Simulation evidence must remain distinguishable from operational observation.

66. Simulation Principle

Simulated Resilience Capacity ≠ Observed Resilience Capacity.

67. Unknown Capacity Conditions

RRVM must support explicit unknown states.

Examples include:

Unknown Backup Availability

Unknown Buffer Duration

Unknown Supporting Resource Availability

Unknown Pathway Independence

Unknown Disturbance Tolerance

Unknown Capacity Competition

Unknown conditions must not be silently treated as sufficient.

68. Unknown Capacity Principle

Capacity Not Verified ≠ Capacity Available.

69. Evidence Conflict

Evidence may conflict.

Examples include:

Rated Capacity Conflicts with Operational Measurement

Backup Availability Records Conflict with Observed Readiness

Simulation Conflicts with Operational Testing

Supporting Resource Availability Is Disputed

Different Sources Report Different Buffer Duration

Conflicts must remain traceable.

70. Evidence Conflict Principle

Conflicting Capacity Evidence ≠ Validated Resilience Capacity.

71. Resource Vulnerability & Resilience Capacity Profile

The principal governed output is the:

Resource Vulnerability & Resilience Capacity Profile

It establishes the evidence-based relationship between the Resource System, its required functions, disturbance exposure, structural and functional vulnerabilities, available protective arrangements, usable resilience capacity, capacity duration, constraints, and residual vulnerabilities.

The profile provides the assessment foundation for subsequent response and recovery governance.

72. Minimum Profile Fields

At minimum:

Vulnerability & Resilience Capacity Profile ID

Resource System ID

Assessment Boundary

Required Operational Functions

Resource Interdependency Network Reference

Disturbance Propagation Profile Reference

Disturbance Scenario ID

Disturbance Exposure

Structural Vulnerability

Functional Vulnerability

Dependency Concentration References

Shared Failure Exposure

Disturbance Sensitivity

Disturbance Tolerance

Resource Buffer References

Usable Buffer Capacity

Buffer Duration

Resource Redundancy References

Resource Diversity References

Pathway Independence Evidence

Nominal Backup Capacity

Usable Backup Capacity

Resilience Capacity

Supporting Resource Requirements

Capacity Duration

Capacity Exhaustion Conditions

Protective Capacity Constraints

Capacity Competition References

Partial Function Preservation State

Residual Vulnerability

Vulnerability Classification

Resilience Capacity Classification

Evidence Provenance

Evidence Sufficiency

Missing Evidence

Evidence Uncertainty

Evidence Conflict

Reassessment Trigger

Effective Time

Version:

73. Minimum Implementation Framework

A minimum operational RRVM implementation should contain ten governed layers.

Layer 1 — Resource System & Function Identity

Establish the Resource System, required operational functions, assessment boundary, and relevant operating conditions.

Layer 2 — Network & Disturbance References

Connect the assessment to the Resource Interdependency Network Profile and Resource Disturbance & Propagation Profile.

Layer 3 — Disturbance Exposure Assessment

Identify disturbance exposure and the relevant dependency pathways.

Layer 4 — Vulnerability Assessment

Evaluate structural vulnerability, functional vulnerability, dependency concentration, and shared failure exposure.

Layer 5 — Disturbance Tolerance Assessment

Evaluate functional tolerance, permitted degradation, and disturbance duration conditions.

Layer 6 — Protective Resource Assessment

Identify Resource buffers, redundancy, diversity, alternative pathways, and their supporting dependencies.

Layer 7 — Usable Resilience Capacity Assessment

Evaluate actual usable capacity, capacity duration, resource competition, and exhaustion conditions.

Layer 8 — Residual Vulnerability Assessment

Identify vulnerabilities remaining after available protective capacity is considered.

Layer 9 — Evidence & Classification

Preserve evidence provenance, uncertainty, vulnerability states, and resilience capacity classifications.

Layer 10 — Governed Output & Handoff

Produce the Resource Vulnerability & Resilience Capacity Profile and preserve downstream response and recovery governance references.

74. Minimum Decision States

At minimum:

Assessment Not Initiated

Resource System Identified

Network Reference Established

Disturbance Scenario Established

Exposure Assessment Pending

Exposure Identified

Vulnerability Assessment Pending

Structural Vulnerability Identified

Functional Vulnerability Identified

Tolerance Assessment Pending

Tolerance Established Within Defined Conditions

Protective Capacity Identified

Protective Capacity Conditionally Available

Usable Resilience Capacity Identified

Resilience Capacity Partially Sufficient

Resilience Capacity Sufficient Within Defined Conditions

Resilience Capacity Insufficient

Resilience Capacity Time-Limited

Resilience Capacity Degraded

Resilience Capacity Exhausted

Residual Vulnerability Identified

Evidence-Limited

Conflicted

Unknown

Reassessment Required

75. Minimum Evidence Path

Where vulnerability or resilience capacity cannot be established:

Resource System → Network & Disturbance References → Operational Function Requirements → Disturbance Exposure → Vulnerability Conditions → Candidate Protective Capacity → Availability & Supporting Resource Evidence → Evidence-Limited / Conflicted / Unknown State → Missing Evidence Identification → Evidence Acquisition → Capacity Reassessment → Vulnerability & Resilience Capacity Classification → Resource Vulnerability & Resilience Capacity Profile → Response & Recovery Governance Handoff

Missing evidence must not be replaced by assumed protective capacity.

76. Minimum Reassessment Framework

Current Resource Vulnerability & Resilience Capacity Profile → New Resource / Capacity / Dependency / Disturbance / Operational Evidence → Materiality Assessment → Exposure Review → Vulnerability Review → Tolerance Review → Protective Capacity Review → Supporting Resource Review → Residual Vulnerability Review → Classification Update → Profile Update → Version Update

Reassessment may be triggered by:

Changed Resource System boundary. Changed required operational functions. New dependency relationships. Changed disturbance exposure. New shared failure conditions. Reduced Resource availability. Changed backup capacity. Changed Resource buffers. Changed operational demand. Changed capacity competition. Changed supporting Resource availability.

New capacity exhaustion evidence. Failed backup testing. New operational disturbance evidence. Conflicting capacity evidence.

77. Governance Requirements

A conforming RRVM implementation must satisfy the following requirements.

Resource System Identity

1. Identify the Resource System. 2. Define the assessment boundary. 3. Identify required operational functions. 4. Preserve relevant operating conditions. 5. Preserve the Resource Interdependency Network reference. 6. Preserve the Disturbance Propagation Profile reference. 7. Preserve assessment time and location. 8. Preserve the evidence basis.

Exposure & Vulnerability Governance

9. Identify disturbance exposure. 10. Preserve structural vulnerability. 11. Preserve functional vulnerability. 12. Preserve dependency concentration references. 13. Preserve shared failure exposure. 14. Evaluate disturbance sensitivity. 15. Preserve disturbance scenario conditions. 16. Distinguish exposure from demonstrated vulnerability. 17. Prevent network connectivity from automatically establishing vulnerability. 18. Prevent Resource capacity reduction from automatically establishing functional failure.

Disturbance Tolerance Governance

19. Identify required functional thresholds. 20. Preserve permitted degradation conditions. 21. Evaluate disturbance tolerance. 22. Preserve disturbance magnitude. 23. Preserve disturbance duration. 24. Preserve relevant operating conditions. 25. Prevent temporary tolerance from establishing unlimited tolerance. 26. Prevent reduced functional performance from automatically satisfying original requirements.

Resource Buffer Governance

27. Identify Resource buffers. 28. Preserve stored Resource quantities. 29. Evaluate usable buffer capacity. 30. Preserve buffer operating conditions. 31. Evaluate buffer duration. 32. Preserve replenishment conditions. 33. Preserve buffer limitations. 34. Prevent stored quantity from automatically establishing usable capacity. 35. Prevent available buffers from automatically establishing sufficient duration.

Redundancy & Diversity Governance

36. Identify redundant Resource arrangements. 37. Preserve nominal backup capacity. 38. Evaluate usable backup capacity. 39. Identify Resource diversity.

40. Evaluate pathway independence. 41. Preserve shared supporting dependencies. 42. Preserve common failure exposure. 43. Prevent redundancy from automatically establishing resilience. 44. Prevent physical separation from automatically establishing pathway independence. 45. Prevent rated backup capacity from automatically establishing available capacity.

Resilience Capacity Governance

46. Identify protective Resource arrangements. 47. Evaluate usable resilience capacity. 48. Preserve supporting Resource requirements. 49. Preserve capacity duration. 50. Identify capacity exhaustion conditions. 51. Identify protective capacity constraints. 52. Preserve capacity competition. 53. Preserve partial functional preservation states. 54. Prevent shared backup capacity from being counted independently for every dependent function. 55. Prevent initially sufficient capacity from establishing sustained sufficiency. 56. Prevent theoretical capacity from establishing operational availability.

Residual Vulnerability Governance

57. Identify residual vulnerability. 58. Preserve unresolved shared dependencies. 59. Preserve insufficient backup capacity. 60. Preserve limited buffer duration. 61. Preserve unverified pathway independence. 62. Preserve supporting Resource constraints. 63. Preserve unknown protective capabilities. 64. Prevent protective capacity identification from eliminating residual vulnerability by assumption.

Evidence Governance

65. Preserve evidence provenance. 66. Evaluate evidence sufficiency. 67. Preserve missing evidence. 68. Support Evidence-Limited states. 69. Support Conflicted states. 70. Support Unknown states. 71. Preserve material uncertainty. 72. Distinguish simulated from observed capacity. 73. Preserve scenario assumptions. 74. Prevent documented protective arrangements from automatically establishing operational verification. 75. Prevent conflicting evidence from establishing validated resilience capacity.

Lifecycle Governance

76. Support vulnerability monitoring. 77. Support resilience capacity monitoring. 78. Preserve material Resource changes. 79. Preserve changed dependency conditions. 80. Preserve changed disturbance exposure. 81. Preserve changed backup capacity. 82. Preserve changed supporting Resource availability. 83. Support reassessment. 84. Preserve reassessment triggers. 85. Preserve effective time. 86. Preserve material version history.

Architecture: Boundaries

87. Maintain RIDM network mapping boundaries. 88. Maintain RDPM disturbance propagation boundaries.

89. Maintain RACS availability and capacity boundaries. 90. Maintain RDCS dependency and criticality boundaries. 91. Maintain RAGS Access governance boundaries. 92. Maintain RPAS Allocation governance boundaries. 93. Maintain RSFS substitution and flexibility boundaries. 94. Preserve downstream response and recovery handoffs. 95. Prevent resilience capacity assessment from creating operational authority. 96. Prevent resilience capacity assessment from establishing recovery success. 97. Prevent resilience capacity assessment from establishing Sustainability. 98. Produce a Resource Vulnerability & Resilience Capacity Profile.

78. Governance Logic

Canonical RRVM logic:

Resource System Identity → Required Operational Functions → Resource Interdependency Network Reference → Disturbance Scenario & Propagation Reference → Disturbance Exposure → Structural & Functional Vulnerability → Dependency Concentration & Shared Failure Exposure → Disturbance Sensitivity & Tolerance → Resource Buffers → Redundancy & Diversity → Pathway Independence → Usable Backup Capacity → Supporting Resource Requirements → Resilience Capacity Duration → Capacity Competition & Exhaustion → Residual Vulnerability → Evidence Validation → Vulnerability & Resilience Capacity Classification → Resource Vulnerability & Resilience Capacity Profile → Monitoring & Reassessment → Response & Recovery Governance Handoff

79. Governance Outputs

RRVM may produce:

Resource Vulnerability & Resilience Capacity Profile

Resource System Identity Record

Assessment Boundary Record

Required Operational Function Register

Disturbance Exposure Record

Structural Vulnerability Assessment

Functional Vulnerability Assessment

Dependency Concentration Reference

Shared Failure Exposure Record

Disturbance Sensitivity Assessment

Disturbance Tolerance Record

Resource Buffer Register

Usable Buffer Capacity Record

Buffer Duration Record

Resource Redundancy Assessment

Resource Diversity Assessment

Pathway Independence Assessment

Nominal Backup Capacity Record

Usable Backup Capacity Record

Resilience Capacity Assessment

Supporting Resource Requirement Register

Capacity Duration Record

Capacity Exhaustion Record

Protective Capacity Constraint Register

Capacity Competition Record

Partial Functional Preservation State

Residual Vulnerability Record

Vulnerability Classification

Resilience Capacity Classification

Evidence Sufficiency State

Missing Evidence Record

Evidence Uncertainty

Evidence Conflict

Reassessment Trigger

Downstream Governance Handoff

Version:

80. Practical Applications

AI Data Centers

Assessing the vulnerability of electricity, cooling, water, and computing dependencies and the usable capacity of backup systems under defined disturbances.

Energy Infrastructure

Evaluating Resource buffers, redundant supply capacity, shared infrastructure exposure, and disturbance tolerance.

Water Systems

Assessing water storage, pumping redundancy, treatment capacity, electricity dependencies, and usable protective capacity during supply interruptions.

Industrial Manufacturing

Evaluating inventory buffers, alternative energy sources, material dependencies, production capacity, and shared backup Resource constraints.

Critical Infrastructure

Assessing vulnerability, protective capacity, duration limits, and residual weaknesses in interconnected essential Resource Systems.

81. Use Case 1 — AI Data Center Backup Electricity Capacity

An AI data center depends on electricity for computing and cooling.

The facility maintains backup electricity capacity.

RRVM establishes:

Resource System: AI data center.

Required Functions: Computing and thermal control.

Disturbance Scenario: Primary electricity supply interruption.

Structural Vulnerability: Computing and cooling share electrical infrastructure.

Protective Resource: Backup electricity.

Nominal Backup Capacity: Documented generator or storage capacity.

Usable Backup Capacity: Capacity available under the actual disturbance, supporting Resource, and operating conditions.

Supporting Resource Requirements: Fuel, control systems, electrical distribution, and other applicable dependencies.

Capacity Competition: Computing and cooling may require the same backup supply.

Capacity Duration: Determined by usable stored energy, fuel, operating load, and replenishment conditions.

Residual Vulnerability: Backup supply may be insufficient to preserve all required functions for the full disturbance duration.

Output: Resource Vulnerability & Resilience Capacity Profile.

The existence of backup electricity does not establish sufficient resilience capacity.

Backup Electricity Installed ≠ Required Computing and Cooling Functions Protected.

82. Use Case 2 — Industrial Water Storage and Production Resilience

An industrial facility depends on water for production.

The facility maintains water storage and an alternative supply pathway.

RRVM establishes:

Resource System: Industrial production facility.

Required Function: Water-supported production.

Disturbance Scenario: Primary water supply interruption.

Structural Vulnerability: Primary and alternative supply may share pumping or electricity infrastructure.

Resource Buffer: Stored water.

Usable Buffer Capacity: Water quantity meeting the required operational quality and access conditions.

Buffer Duration: Determined by usable water quantity and actual production demand.

Alternative Pathway: Secondary water supply, subject to relevant Access and availability conditions.

Supporting Resource Requirements: Electricity, pumping, treatment, and distribution infrastructure.

Residual Vulnerability: Storage may support temporary production but remain insufficient for an extended interruption.

Output: Resource Vulnerability & Resilience Capacity Profile.

The facility may possess substantial stored water while remaining vulnerable to a shared pumping failure.

Water Stored ≠ Water Operationally Available.

83. Critical Distinctions