RCHS — Resource Characterization Standard
Architecture: RSGA™ — Resource Sustainability Governance Architecture
Category: Governance & Enforcement
Subcategory: Resource Governance
Type: Parent Standard
Governed Space: Resource Characterization Governance
Standard ID: RSGA-RCHS-01
Origin ID: OOF-RSGA-RCHS
Version: 1.0
Status: Draft Standard
Effective Date: Pending
Compatibility: RSGA™ Architecture 1.0
GIE-Compatible: Yes
AI-Readable: Yes
Authority: OOF® — OriginOpen® Foundation
Protection: Protected Methodological Work
Canonical Language: English
1. Canonical Definition
RCHS — Resource Characterization Standard is the Parent Standard within RSGA™ that governs how a Resource or Resource System is identified, bounded, classified, sourced, contextualized, and represented in a sufficiently precise Resource State before downstream Resource Sustainability governance occurs.
RCHS establishes the governed identity of the Resource as a Resource object without assuming that existence establishes availability, accessibility, usability, allocation eligibility, sustainability, or entitlement.
It determines what Resource is actually being governed, where its relevant boundaries begin and end, what materially constrains it, what state it occupies, where it originates, and which contextual conditions are necessary for downstream interpretation.
RCHS creates the characterization foundation upon which all subsequent RSGA™ governance depends.
2. Operational Role
RSGA™ cannot govern availability, demand, dependency, access, allocation, consumption, scarcity, recovery, substitution, resilience, or continuity until the governed Resource has been sufficiently characterized.
RCHS therefore establishes the first governed representation of the Resource.
Its operational role is to transform an unstructured or ambiguously described Resource into a bounded and contextually meaningful Governed Resource capable of entering the RSGA™ governance lifecycle.
RCHS answers:
What is the Resource? What exactly is included within its boundary? What is excluded? What Resource class or classes apply? What constrains it? What state is being characterized? Where does it originate? What source supplies it? Where and when does the characterization apply? Which contextual characteristics materially affect downstream Resource governance?
RCHS does not determine whether sufficient Resource quantity is available.
It establishes what must be understood before such a determination can legitimately occur.
3. Core Question
What Resource is being governed, what are its boundaries, properties, origin, state, context, and constraint characteristics?
4. Position in RSGA™ Governance Flow
The canonical RSGA™ Governance Flow is:
→ Resource Characterization ← → Availability & Capacity → Demand
→ Dependency & Criticality → Access → Prioritization & Allocation → Consumption & Utilization → Scarcity & Constraint → Recovery & Circularity → Substitution & Flexibility → Interdependency & Resilience → Continuity & Sustainability
RCHS occupies the first governance position.
It establishes the Resource representation required by every subsequent Parent Standard.
This position does not mean Resource Characterization occurs only once.
Material changes in Resource identity, boundary, source, state, condition, location, context, or constraint characteristics may require re-characterization and downstream reassessment.
5. Governed Space
The Governed Space of RCHS is:
Resource Characterization Governance
This space includes the governance necessary to establish:
Resource identity Resource boundary Resource class Resource properties relevant to governance Resource constraint characteristics Resource state Resource origin Resource source Resource context Temporal context Spatial context Relevant condition Relevant quality where applicable
RCHS governs characterization only to the extent required to support legitimate Resource Sustainability governance.
It does not attempt to reproduce the entire scientific, engineering, ecological, biological, geological, infrastructural, or technical model of the Resource.
6. Governed Object
The primary Governed Object is:
A Resource or Resource System requiring characterization before downstream Resource Sustainability governance.
The Governed Object may represent:
A physical Resource A regenerative Resource A recoverable Resource A Resource flow A Resource stock An infrastructure capacity An operational capacity A storage capacity
A network capacity A materially constrained Resource System A secondary or recovered Resource
The same physical system may contain multiple Governed Resources where materially different Resource boundaries or governance questions require independent treatment.
Conversely, multiple physical components may form one Governed Resource System where their Resource Sustainability conditions cannot meaningfully be governed independently.
7. Resource Characterization Boundary
Resource Characterization must establish what is inside and outside the governed Resource boundary.
A Resource boundary may be defined through one or more relevant dimensions:
Physical boundary Functional boundary System boundary Infrastructure boundary Geographic boundary Temporal boundary Source boundary Ownership or control boundary where relevant as context Operational boundary Recovery boundary
Boundary selection must reflect the governed reality.
A boundary must not be chosen merely because it produces a more favorable Resource assessment.
The Resource boundary must follow the governed Resource reality, not the preferred analytical outcome.
8. Resource Identification
A Governed Resource must be identifiable with sufficient precision to prevent materially different Resources, capacities, stocks, flows, sources, or states from being treated as interchangeable.
Identification may include:
Canonical Resource name Resource description Resource type Resource class Relevant source Relevant location Relevant system Relevant state Relevant time horizon Applicable unit or native measurement basis
Resource identification must remain distinguishable from legal ownership, governance authority, or entitlement.
Resource Identification ≠ Resource Ownership ≠ Resource Authority ≠ Resource Entitlement.
9. Resource Classification
RCHS may classify a Resource into one or more applicable RSGA™ Resource Classes:
Finite Resource Regenerative Resource Recoverable Resource Flow-Constrained Resource Capacity-Constrained Resource Strategically Concentrated Resource
Classification is non-exclusive.
A Resource may occupy multiple classes simultaneously.
For example, a critical material may be finite, recoverable, strategically concentrated, and constrained by processing capacity.
An electricity system may be flow-constrained, capacity-constrained, storage-dependent, and materially dependent upon other Resources.
A regenerative biological Resource may be regenerative while simultaneously being capacity-constrained by its regeneration rate.
Resource Class describes relevant Resource characteristics; it does not determine Resource sustainability by itself.
10. Constraint Characterization
RCHS identifies the material characteristics that make the Resource relevant to RSGA™ governance.
Constraint characteristics may include:
Finite stock Limited regeneration Limited recovery Limited production Limited extraction Limited processing Limited transport Limited transmission Limited storage Limited infrastructure Limited accessibility Geographic concentration Temporal limitation Seasonality Quality limitation Source concentration Dependency upon another constrained Resource
A constraint affecting the Resource does not automatically become a Governed Resource.
Resource Constraint ≠ Governed Resource.
Where a constraint itself satisfies the RSGA™ Scope independently, it may become a separate Governed Resource.
11. Resource State Characterization
RCHS establishes the Resource State relevant to characterization without making downstream determinations reserved for later Parent Standards.
Relevant characterization states may include:
Existing Resource Primary Resource Secondary Resource
Recovered Resource Residual Resource Embedded Resource Stored Resource Resource Flow Resource Capacity Regenerative Resource State
Later RSGA™ standards may establish additional states concerning availability, access, allocation, consumption, scarcity, resilience, or sustainability.
RCHS must not infer those downstream states merely from characterization.
Characterized Resource State ≠ Availability State ≠ Allocation State ≠ Sustainability State.
12. Resource Origin
Resource Origin identifies where the governed Resource arises or is derived from at the level necessary for Resource Sustainability governance.
Origin may include:
Natural origin Extracted origin Generated origin Produced origin Recovered origin Regenerated origin Secondary origin Imported origin Infrastructure-provided origin Distributed origin
Origin must remain distinguishable from current source.
A Resource may originate in one system and become available through another.
Resource Origin ≠ Resource Source.
13. Resource Source
Resource Source identifies the relevant supply point, system, pathway, infrastructure, stock, provider, environment, or recovery pathway from which the Resource is obtained for the governed context.
A Governed Resource may have:
Single source Multiple sources Alternative sources Primary source Secondary source Backup source Recovered source Distributed sources
Source characterization may later support availability, concentration, dependency, substitution, resilience, and continuity governance.
RCHS identifies the source structure.
It does not determine whether the source is sufficiently available or resilient.
14. Resource Condition
Where materially relevant, RCHS records the condition of the Resource.
Condition may concern:
Physical condition Technical condition Operational condition Environmental condition Storage condition Processing condition Recovery condition Degradation state Contamination state Functional condition
Condition must be included only where it materially changes Resource interpretation.
RCHS does not require irrelevant technical detail merely because such detail can be measured.
Characterization requires sufficient relevant detail, not maximum possible detail.
15. Resource Quality
Resource quantity and Resource quality must remain distinguishable where quality materially affects usability or downstream governance.
A nominal Resource quantity may not represent equivalent usable Resource capacity when quality differs.
Examples may include differences in:
Purity Grade Energy characteristics Water quality Material specification Signal or network quality Compute capability Biological condition Recovery quality
Resource-specific quality determination remains within the competent specialized domain where technical validation is required.
RCHS records the governance-relevant quality state or reference.
Resource Quantity ≠ Resource Quality ≠ Usable Resource Capacity.
16. Spatial Context
Resource characterization must preserve location where location materially affects governance significance.
Spatial context may include:
Physical location Geographic region Infrastructure location Network position Storage location Extraction location Production location Recovery location
Consumption region Distribution zone
The same Resource quantity may have materially different governance significance in different locations because accessibility, dependency, scarcity, infrastructure, substitution, or consequences differ.
Resource identity without relevant spatial context may be insufficient for Resource governance.
17. Temporal Context
Resource characterization must preserve time where Resource State or governance significance is time-dependent.
Relevant temporal context may include:
Observation time Characterization period Season Operating period Generation period Extraction period Recovery period Regeneration period Expected validity period Relevant future horizon
RCHS does not determine future availability.
It ensures that a present characterization is not silently treated as temporally universal.
Present Resource Characterization ≠ Permanent Resource Condition.
18. Resource Context
A Resource must be characterized within sufficient context to support downstream governance.
Relevant context may include:
Quantity Origin Source Condition Quality Location Time Constraint characteristics Resource class Recoverability Regeneration characteristics Relevant infrastructure relationship Known Resource interdependencies
Not every context dimension applies equally to every Resource.
The required context is determined by the governed reality.
The governance significance of a Resource cannot be determined from quantity alone.
19. Native Measurement Preservation
RCHS preserves the Resource's valid native measurement basis.
Examples may include domain-appropriate physical, capacity, stock, flow, throughput, storage, biological, or other measurements.
RCHS does not require materially different Resources to be expressed through a universal physical unit.
Native Resource Measurement must be preserved before any governed normalization occurs.
Any later cross-Resource normalization must remain traceable to the underlying native measurement and Resource context.
Native Resource Measurement ≠ Normalized Resource Significance.
20. Characterization Sufficiency
Resource Characterization is sufficient when the governed Resource can be distinguished from materially different Resources or states and downstream RSGA™ governance can proceed without relying upon unresolved characterization assumptions that could materially change the result.
Sufficiency is therefore contextual.
It does not require complete scientific knowledge of the Resource.
It requires sufficient governed knowledge for the next legitimate governance determination.
Possible characterization status may include:
Sufficiently Characterized Conditionally Characterized Partially Characterized Characterization Evidence-Limited Characterization Conflicted Characterization Unresolved
A downstream process must not silently convert incomplete characterization into certainty.
21. Characterization Uncertainty
RCHS must preserve material uncertainty concerning:
Resource identity Boundary Class Origin Source State Condition Quality Location Time Constraint characteristics Context
Where uncertainty could materially affect downstream Resource governance, it must remain visible.
Uncertainty in Resource Characterization must propagate until resolved or legitimately bounded.
Characterization uncertainty must not be removed merely to enable downstream calculation.
22. Characterization Change
Resource Characterization is not permanently fixed.
Material change may occur through:
Source change Location change State transition Recovery Regeneration Degradation Processing Infrastructure change Boundary change Resource reclassification Material contextual change
A material characterization change may require downstream RSGA™ reassessment.
A previously valid Resource Characterization does not remain valid after a material change merely because the Resource retains the same name.
23. Re-Characterization Trigger
Re-characterization should occur when new evidence or operational change materially affects the governed representation of the Resource.
Triggers may include:
New source Changed source concentration Changed Resource boundary Changed physical or functional condition Changed quality Changed Resource class Recovery into a Secondary Resource Changed location Changed relevant time horizon Newly identified constraint Newly identified interdependency Materially corrected prior characterization
Re-characterization does not automatically invalidate every prior downstream determination.
It creates a requirement to determine which downstream states are materially affected.
24. Regenerative Resource Characterization
A regenerative Resource must be characterized in a manner capable of distinguishing present Resource stock from regenerative characteristics.
Relevant characterization may include:
Current Resource state Regenerative nature Relevant regeneration mechanism reference Regeneration horizon Seasonality Material extraction relationship Relevant depletion characteristics
RCHS does not determine sustainable extraction levels.
Those determinations occur downstream within the applicable RSGA™ governance spaces and specialized Resource domains.
Regenerative Resource ≠ Unlimited Resource.
25. Recoverable Resource Characterization
A Resource may remain materially relevant after its original functional use ends.
RCHS therefore permits characterization of:
Residual Resource Embedded Resource Recoverable Resource Recovered Resource Secondary Resource
A Resource may change state without losing its relevance to Resource Sustainability governance.
Functional End-of-Use ≠ Resource End-of-Life.
Recovery potential itself is governed downstream.
RCHS establishes the Resource representation necessary for that governance.
26. Capacity Resource Characterization
Capacity-constrained Resources require characterization that distinguishes physical or technical capacity from actual availability, usability, allocation, and utilization.
Examples may include:
Compute capacity Storage capacity Network capacity Cooling capacity Generation capacity Transmission capacity Infrastructure capacity
RCHS may identify nominal or relevant capacity characteristics but does not infer downstream states from them.
Installed Capacity ≠ Available Capacity ≠ Usable Capacity ≠ Allocable Capacity ≠ Utilized Capacity.
27. Flow-Constrained Resource Characterization
Where Resource availability depends upon continuing flow, characterization must distinguish the Resource itself from the infrastructure or mechanism through which it moves.
Relevant characteristics may include:
Flow basis Source Delivery pathway Relevant capacity Temporal dependency Storage relationship Material continuity characteristics
RCHS does not acquire governance over the internal operational mechanism merely because that mechanism affects Resource flow.
28. Strategically Concentrated Resource Characterization
Where Resource availability, production, extraction, processing, storage, transport, or other relevant capacity is materially concentrated, RCHS must permit that concentration characteristic to be represented.
Concentration may concern:
Geography Supplier structure Infrastructure Processing capacity Transport pathway Storage Technology Source dependency
RCHS identifies concentration as a characterization property.
Downstream standards determine its significance for dependency, criticality, resilience, and continuity.
29. Resource-System Characterization
Some governed realities cannot be adequately represented as a single isolated Resource.
Where materially necessary, RCHS may characterize a Resource System consisting of interconnected Resource components, capacities, flows, stocks, or infrastructures.
A Resource System boundary must be justified by the Resource Sustainability question being governed.
System characterization must not erase component-level differences where those differences materially affect governance.
Resource-System representation must preserve materially relevant internal distinctions.
30. Cross-Resource Characterization
Where multiple Resources interact, each Resource must retain its own native identity, state, measurement, and context.
Cross-Resource relationships may be recorded without treating the Resources as physically equivalent.
Example:
Water → Energy → Cooling → Compute
Each represents a different Resource reality.
Their interdependency does not collapse them into one Resource.
Resource Interdependency ≠ Resource Equivalence.
31. Specialized Domain Boundary
RCHS is Resource-agnostic.
It does not replace specialized scientific, technical, ecological, engineering, biological, or infrastructural characterization methods where those methods are necessary to determine Resource-specific reality.
For example, RCHS does not independently determine:
Aquifer hydrology Grid physics Mineral grade Battery chemistry Fish population biology
GPU architecture Network engineering
Such domain-specific mechanisms may provide governed inputs to RCHS.
RCHS governs how those relevant inputs form the Resource Characterization required by RSGA™.
Specialized Resource Knowledge → RCHS Characterization Input, not transfer of specialized- domain governance to RCHS.
32. Governance Requirements
A conforming RCHS implementation must:
1. identify the Governed Resource with sufficient precision; 2. establish an explicit Resource boundary; 3. distinguish included and excluded Resource scope; 4. identify applicable Resource classes; 5. characterize material constraint characteristics; 6. establish the relevant Resource State; 7. preserve Resource Origin where relevant; 8. preserve Resource Source where relevant; 9. preserve material condition and quality distinctions; 10. preserve relevant spatial context; 11. preserve relevant temporal context; 12. preserve native measurement; 13. distinguish characterization from downstream availability or sustainability determinations; 14. expose material characterization uncertainty; 15. support re-characterization after material change; 16. preserve provenance of characterization inputs; 17. maintain specialized-domain boundaries; 18. prevent materially different Resources from being silently treated as equivalent.
33. Governance Logic
The canonical RCHS governance logic is:
Candidate Resource → Resource Identification → Resource Boundary → Resource Classification → Constraint Characterization → Resource State Characterization → Origin & Source → Condition & Quality where relevant → Spatial Context → Temporal Context → Native Measurement → Context Consolidation → Characterization Sufficiency → Governed Resource Characterization State
Where material uncertainty remains:
Characterization Evidence → Uncertainty Identification → Missing Characterization Requirement → Additional Evidence / Domain Input → Reassessment
Where material change occurs:
Existing Characterization → Material Change → Re-Characterization → Revised Governed Resource Characterization State → Downstream Impact Determination
34. Governance Outputs
RCHS may produce:
Governed Resource Identity Resource Boundary Representation Resource Class State Resource Constraint Profile Resource State Representation Resource Origin Reference Resource Source Structure Resource Condition State Resource Quality Reference Spatial Context Temporal Context Native Measurement Reference Resource Context Profile Characterization Sufficiency State Characterization Uncertainty State Re-Characterization Requirement Governed Resource Characterization State
These outputs provide governed inputs to subsequent RSGA™ Parent Standards.
They do not establish Resource entitlement, allocation authority, sustainability, or external Governance Authority.
35. Critical Distinctions
Resource Identity ≠ Resource Ownership Resource Identification ≠ Resource Authority Resource Boundary ≠ Organizational Boundary Resource Class ≠ Resource Sustainability State Resource Constraint ≠ Governed Resource Resource Origin ≠ Resource Source Resource State ≠ Availability State Resource Quantity ≠ Resource Quality Resource Quantity ≠ Usable Capacity Installed Capacity ≠ Available Capacity Available Capacity ≠ Usable Capacity Usable Capacity ≠ Allocable Capacity Allocable Capacity ≠ Utilized Capacity Primary Resource ≠ Secondary Resource Functional End-of-Use ≠ Resource End-of-Life Regenerative ≠ Unlimited Resource Interdependency ≠ Resource Equivalence Native Resource Measurement ≠ Normalized Resource Significance Characterization Sufficiency ≠ Complete Scientific Knowledge Resource Characterization ≠ Resource Availability Determination Resource Characterization ≠ Resource Allocation Resource Characterization ≠ Resource Sustainability Determination
36. Cross-Architecture Boundary
RCHS ↔ ORA™
ORA™ governs Operational Reality.
RCHS may consume operational facts concerning the Resource but governs their significance for Resource Characterization.
Operational Fact ≠ Governed Resource Characterization.
RCHS ↔ GOA™
GOA™ governs Governance Authority.
RCHS may identify relevant ownership, control, or authority context where necessary but does not establish Governance Authority.
Resource Identification ≠ Governance Authority.
RCHS ↔ ADIT®
ADIT® governs Audit and Evidence.
RCHS defines which evidence may be required to support Resource Characterization.
Characterization Evidence Requirement ≠ Evidence Governance.
RCHS ↔ VALIDOS™
VALIDOS™ governs Validation.
RCHS may depend upon validated technical or scientific determinations without acquiring governance over the validation methodology itself.
Resource Characterization ≠ Validation Governance.
RCHS ↔ PGA™
Future Resource conditions may depend upon governed Predictions.
RCHS characterizes the present or otherwise explicitly bounded Resource state and must distinguish observed or established Resource characteristics from predicted conditions.
Current Resource Characterization ≠ Predicted Resource Condition.
RCHS ↔ VEGA™
VEGA™ may characterize Resources consumed by intelligence execution for Value Execution governance.
RCHS establishes the Resource characterization required by RSGA™.
Resource Characterization ≠ Resource Justification.
A Resource may be correctly characterized without its consumption being justified, and justified consumption does not change the Resource's underlying characterization.
37. 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.
Applied to RCHS:
An electrical grid may provide information about generation or transmission capacity.
A hydrological system may provide information about water conditions.
A biological model may provide information about fish-stock conditions.
A compute infrastructure may provide information about GPU or processing capacity.
RCHS uses such information to establish Resource Characterization where relevant.
It does not acquire governance over grid operation, hydrology, biological modelling, or compute engineering.
38. Reassessment Logic
RCHS must support reassessment when material new evidence changes the governed understanding of the Resource.
Canonical reassessment path:
Existing Governed Resource Characterization → New Evidence or Material Change → Characterization Impact Test → Re-Characterization where required → Revised Characterization State → Downstream RSGA™ Impact Identification → Reassessment Trigger
A non-material change need not invalidate the existing characterization.
A material change must not be ignored merely to preserve prior downstream conclusions.
39. GIE Compatibility
RCHS may be operationalized through GIE™ as machine-readable governance logic.
A GIE-compatible implementation may translate RCHS into:
Governed Questions Evidence Requirements Resource Characterization Objects Boundary Objects Resource Class States Constraint Profiles Native Measurements Context Objects Sufficiency States Uncertainty States Reassessment Triggers
GIE™ executes the methodology.
It does not redefine it.
OOF® logic adapts to the governed reality. The engine adapts to OOF® logic.
40. Canonical Boundary
RCHS governs what Resource is being governed and how that Resource must be bounded, characterized, contextualized, and represented before downstream Resource Sustainability determinations can legitimately occur.
RCHS does not determine Resource availability, demand priority, entitlement, allocation, consumption legitimacy, scarcity response, recovery viability, resilience, or sustainability except where information concerning those domains is necessary solely to characterize the Resource correctly.
41. Canonical Closing Statement
A Resource cannot be governed sustainably until the governed system knows what the Resource is, where its boundaries lie, what state it occupies, where it comes from, and which conditions materially shape its significance.
RCHS establishes that foundation: characterize the Resource before governing what may be done with it.
Governed Links
About Resource Characterization Standard (RCHS)
Resource Boundary Definition Module (RBDM)
Resource Type & Constraint Module (RTCM)
Resource State Definition Module (RSDM)
Resource Origin & Source Module (ROSM)
Resource Context Module (RCXM)