SLGA™ Architecture Map
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From: Knowenger <knowenger@gmail.com> Date: Fri, Oct 16, 2026, 9:20 AMSubject: SLGA™ Architecture Map To: Miroslav Pis
<swissstaffingagency@gmail.com>, <Gutflex@gmail.com>, <
originopenfoundation@gmail.com>
SLGA™ Architecture Map Software Lifecycle Governance Architecture —
Software Lifecycle Governance Layer Official Software LifecycleGovernance Reference Map for Software Products, Applications,
Components, Services, Platforms, AI Systems, Autonomous Software
Agents, Digital Infrastructure, Embedded Software, and Future Software
Systems
SLGA™ serves as the official OOF® Software Lifecycle Governance reference
map used to identify, define, classify, navigate, govern, evaluate,and understand governable Software Lifecycle spaces across software
products, applications, components, services, platforms, AI systems,
autonomous software agents, digital infrastructure, embedded software,
and future software systems.
The purpose of SLGA™ is not to prescribe a software development
methodology, replace software engineering, perform software creation,
execute testing, releases, deployments, changes, or retirement
operations, independently grant lifecycle authority, replace
specialized technical, security, safety, regulatory, contractual, or
operational decision systems, or substitute for general evidence,
validation, integrity, identity, accountability, or autonomous-system
governance.
The purpose of SLGA™ is to identify, define, separate, and map the
governable spaces through which Software Requirements are established,
Software Creation is governed, Dependencies are identified and
controlled, Configurations and Builds remain traceable, Quality and
Security conditions are evaluated, Software Releases become ready and
legitimately authorized, Deployments are planned and verified,
Software Changes are assessed and routed through applicable lifecycle
governance, Software Retirement is legitimately completed, and
Software Lifecycle Control continuously preserves state consistency,
authorized transitions, bounded exceptions, control continuity, and
verifiable control effectiveness.
SLGA™ serves as the official Software Lifecycle Governance reference map
for:- Software Products
- Software Applications - Software Components - Software Libraries -Software Services - Software Platforms - Cloud Software - Enterprise
Software - Open-Source Software - Proprietary Software - AI-Enabled
Software - AI Systems - Autonomous Software Agents - Multi-Agent
Software Systems - Embedded Software - Industrial Software - Digital
Infrastructure - Distributed Software Systems - Human-AI Software
Environments - Software Supply Chains - Critical Software Systems -
Future Software Ecosystems
Core Architectural Principle
Every Software Lifecycle Governance space answers one primary governance
question.No Software Lifecycle Governance space duplicates the purpose of another
Software Lifecycle Governance space.Every Software Lifecycle Governance space has a defined beginning, a
defined operational purpose, and a defined governance boundary.Every Software Lifecycle Governance space becomes applicable when its
own governance conditions arise and the necessary preceding inputs
have been sufficiently established.
Software Lifecycle Governance spaces may operate concurrently, recur,
or require targeted re-entry.
Software Lifecycle Control operates across all lifecycle spaces rather
than constituting an additional sequential operational stage afterRetirement.
Together, these Software Lifecycle Governance spaces form the official
Software Lifecycle Governance reference map of SLGA™. OfficialSoftware Lifecycle Governance Flow
Software Requirements → Software Creation → Software Dependencies →
Software Configuration → Software Quality → Software Security →Software Release → Software Deployment → Software Change Management →
Software Retirement
Cross-Cutting Governance Layer: Software Lifecycle Control
1. Software Requirements Standard (SRS)Governed Space: Software Requirements Governance
Core QuestionHow can software purpose, requirements, scope, changes, and
traceability remain identifiable and governable throughout the
software lifecycle? Canonical Definition
Software Requirements Standard (SRS) defines the governance conditions
under which software purpose is established, applicable requirementsare specified, software scope is bounded, requirements changes are
controlled, and requirements remain traceable across software
creation, verification, release, deployment, change, and retirement.
Governance Boundary
Begins when a software need, objective, or intended function requires
explicit requirements governance.
Ends for an initial requirements baseline when software purpose,
requirements, scope, and traceability conditions have been
sufficiently established to support Software Creation Governance.
Continues whenever requirements are changed, challenged, superseded,
or materially affected by subsequent lifecycle developments.
Software Purpose ≠ Verified Requirements.
Requirements Documented ≠ Requirements Traceable.
- Software Creation Standard (SCS)
Governed Space: Software Creation Governance
Core QuestionHow can software creation remain identifiable, methodologically
controlled, attributable, and traceable across human, automated, and
autonomous creation processes? Canonical Definition
Software Creation Standard (SCS) defines the governance conditions under
which software creation methods are selected, creators and creationsystems are identified, automated and autonomous creation activities
remain controlled, software artifacts are established, and development
traceability is preserved. Governance Boundary
Begins when sufficiently established software requirements or an
authorized software creation objective enters a creation process.
Ends for a defined creation activity when the resulting software
artifacts, creation conditions, creator relationships, and development
traceability have been sufficiently established to support subsequent
lifecycle governance.
Remains applicable to renewed or modified creation activities.
Software Created ≠ Software Governed.
Automated Creation ≠ Autonomous Authority.
- Software Dependency Standard (SDS)
Governed Space: Software Dependency Governance
Core QuestionHow can software dependencies remain identifiable, origin-traceable,
suitable, change-controlled, and governable throughout the software
lifecycle? Canonical Definition
Software Dependency Standard (SDS) defines the governance conditions
under which software components and dependencies are identified, theirorigins and relevant relationships are traced, their suitability is
assessed, their introduction and changes are controlled, and
dependency continuity and risk remain governed. Governance Boundary
Begins when an identifiable software object incorporates, proposes to
incorporate, or materially relies upon another software component,
service, library, platform, or technical dependency.
Ends for an individual dependency governance decision when its
identity, origin, suitability, applicable introduction or change
conditions, and continuing risk and dependency obligations have been
sufficiently established.
Continues while the dependency remains materially relevant to the software
lifecycle.Component Identified ≠ Dependency Suitable.
Dependency Available ≠ Dependency Continuity Guaranteed.
- Software Configuration Standard (SCFS)
Governed Space: Software Configuration Governance
Core QuestionHow can software configurations, builds, artifacts, and versions
remain identifiable, controlled, reproducible where required, and
traceable across lifecycle changes? Canonical Definition
Software Configuration Standard (SCFS) defines the governance conditions
under which software configuration baselines, builds, artifacts,versions, configuration changes, and applicable reproducibility or
equivalence requirements remain identifiable, controlled, and
traceable. Governance Boundary
Begins when software artifacts, components, or settings require
representation as an identifiable configuration, build, version, or
baseline.
Ends for a defined configuration governance activity when the relevant
baseline, build, artifact identity, version relationships, changes,
and applicable reproducibility or equivalence conditions have been
sufficiently established.
Continues when configurations or their material dependencies change.
Software Version ≠ Software Build.
Configuration Recorded ≠ Configuration Verified.
- Software Quality Standard (SQS)
Governed Space: Software Quality Governance
Core QuestionHow can software quality requirements, evaluation criteria, testing
coverage, defects, and resulting quality conditions remain governed
through identifiable evidence? Canonical Definition
Software Quality Standard (SQS) defines the governance conditions under
which software quality requirements and criteria are established, testcoverage is governed, defects are identified and managed, and the
quality condition of identifiable software is assessed through
applicable evidence. Governance Boundary
Begins when a software object, artifact, build, version, or
operational condition requires quality governance against applicable
requirements or criteria.
Ends for a defined quality assessment when the relevant quality
conditions, test coverage, defects, evidence limitations, and
resulting quality classification have been sufficiently established to
support applicable lifecycle decisions.
Remains applicable when material software changes invalidate or alter
earlier quality conclusions.
Testing Performed ≠ Quality Established.
Quality Assessment ≠ Security Assessment.
- Software Security Standard (SSS)
Governed Space: Software Security Governance
Core QuestionHow can software security requirements, exposures, testing,
vulnerabilities, and remediation remain identifiable, controlled, and
verifiable throughout the software lifecycle? Canonical Definition
Software Security Standard (SSS) defines the governance conditions under
which software security requirements are established, relevantexposures are assessed, security testing is controlled,
vulnerabilities are identified and managed, and security remediation
is governed and verified. Governance Boundary
Begins when software creation, dependencies, configurations,
operation, or other lifecycle conditions establish applicable software
security requirements or material security exposure.
Ends for an individual security governance case when its applicable
requirements, exposure conditions, testing results, vulnerability
status, remediation obligations, and verification outcomes have
received a sufficiently governed disposition.
Continues while material security conditions or unresolved obligations
remain.Vulnerability Identified ≠ Vulnerability Remediated.
Security Remediation Applied ≠ Remediation Effectiveness Verified.
- Software Release Standard (SRLS)
Governed Space: Software Release Governance
Core QuestionUnder what governed conditions can an identifiable software release
candidate become ready, legitimately authorized, recorded, and subject
to withdrawal where required? Canonical Definition
Software Release Standard (SRLS) defines the governance conditions under
which software release candidates are identified and managed, releasereadiness is evaluated, competent release authorization is
established, release records are preserved, and releases may be
withdrawn when applicable conditions require it. Governance Boundary
Begins when an identifiable software artifact, build, or version
becomes a proposed release candidate.
Ends for a defined release decision when readiness, authorization,
release identity, applicable conditions, and release records have been
sufficiently established, or when the candidate is rejected, deferred,
or withdrawn.
Continues where an authorized release becomes subject to withdrawal or
reassessment.
Release Readiness ≠ Release Authorization.
Release Authorization ≠ Deployment Authorization.
- Software Deployment Standard (SDPS)
Governed Space: Software Deployment Governance
Core QuestionHow can software deployment remain planned, authorized, operationally
identifiable, monitored, and recoverable across actual deployment
environments? Canonical Definition
Software Deployment Standard (SDPS) defines the governance conditions
under which software deployment is planned, legitimate deploymentauthorization is established, production versions and configurations
are identified, deployment states are monitored, and rollback or
recovery is governed where required. Governance Boundary
Begins when an identifiable software release, version, or
configuration is proposed for introduction, replacement, modification,
or restoration within a defined deployment environment.
Ends for a deployment activity when its authorization, actual
resulting state, applicable monitoring conditions, and required
recovery or rollback obligations have received a sufficiently governed
disposition.
Continues while deployment state or recovery conditions remain materially
relevant.Deployment Executed ≠ Deployment Verified.
Authorized Release ≠ Verified Production Deployment.
- Software Change Management Standard (SCMS)
Governed Space: Software Change Management Governance
Core QuestionHow can software changes remain requested, impact-assessed,
coordinated, routed through applicable lifecycle governance, and
legitimately closed? Canonical Definition
Software Change Management Standard (SCMS) defines the governance
conditions under which software change requests are identified, theirimpacts are assessed, change activities are coordinated, materially
affected lifecycle governance spaces are re-entered, and change cases
are legitimately closed through applicable evidence and verification.
Governance Boundary
Begins when a proposed, required, observed, or corrective software
change requires explicit governance.
Continues through change request management, impact assessment,
coordination, applicable lifecycle re-entry, implementation
relationships, verification, and closure.
Ends for an individual change case when its applicable requirements,
outcomes, unresolved obligations, and closure conditions have been
sufficiently governed.
Change Implemented ≠ Change Verified.
Software Change ≠ Complete Lifecycle Restart by default.
- Software Retirement Standard (SRTS)
Governed Space: Software Retirement Governance
Core QuestionHow can software be legitimately, safely, and verifiably retired when
its operational use, support obligations, dependencies, data, users,
authority relationships, and residual responsibilities may continue
beyond the decision to discontinue it? Canonical Definition
Software Retirement Standard (SRTS) defines the governance conditions
under which software retirement is planned, end-of-support conditionsare established, migration is governed where applicable, residual
dependencies and continuing obligations are identified and managed,
and retirement closure is verified. Governance Boundary
Begins when an identifiable software object becomes subject to
proposed, required, or initiated retirement governance.
Continues through retirement planning, support disposition, migration
where applicable, residual dependency management, and closure
verification.
Ends active retirement governance for the applicable software scope
when a sufficiently supported Software Retirement Closure State has
been established and continuing obligations have received an
appropriate governance disposition.
Retirement Decision ≠ Retirement Completion.
End of Support ≠ End of Operational Use.
Retirement Closure ≠ Historical Evidence Erasure.
- Software Lifecycle Control Standard (SLCS)
Governed Space: Software Lifecycle Control Governance
Core QuestionHow can software remain identifiable, controllable, and governable
throughout its lifecycle when its states, transitions, actors,
dependencies, operational conditions, authority relationships, and
governance requirements continuously change? Canonical Definition
Software Lifecycle Control Standard (SLCS) defines the governance
conditions under which software lifecycle states remain consistent,lifecycle transitions occur under legitimate authority and verifiable
conditions, lifecycle exceptions remain bounded, control transfers
preserve authority and operational continuity, and lifecycle controls
are assessed for suitability, implementation, and actual
effectiveness. Governance Boundary
Begins when an identifiable software object becomes subject to
lifecycle governance and requires consistency between its declared
state, actual condition, applicable requirements, authority, and
control arrangements.
Operates continuously across Software Requirements, Creation, Dependencies,
Configuration, Quality, Security, Release, Deployment, ChangeManagement, and Retirement.
Continues through lifecycle state changes, authorized transitions,
exceptions, control transfers, control assessments, and applicable
reassessment.
Ends for a defined control case when its state, control requirements,
verification outcomes, and continuing obligations have received an
appropriate governance disposition.
SLCS is cross-cutting and is not a sequential operational phase after
Software Retirement.
Declared Lifecycle State ≠ Verified Lifecycle State.
Technical Transition Capability ≠ Legitimate Transition Authority.
Control Implemented ≠ Control Effective. Core Governed Software
Lifecycle Spaces
- Software Requirements
- Software Creation - Software Dependencies - Software Configuration -Software Quality - Software Security - Software Release - Software
Deployment - Software Change Management - Software Retirement -
Software Lifecycle Control
Complete Software Lifecycle
SLGA™ does not treat Software Creation, Release, or Deployment ascompletion of the software lifecycle.
The complete governed lifecycle is:
Software Purpose → Requirements → Creation → Dependencies → Configuration
→ Quality → Security → Release → Deployment → Change Management →Retirement
Software Lifecycle Control operates across the complete lifecycle.
Software may therefore remain subject to governance after its initial
release and deployment.
A release establishes a governed software release state.
It does not establish that deployment has occurred.
A deployment establishes an operational software state.
It does not establish that the complete software lifecycle has ended.
A retirement decision establishes an intended lifecycle disposition.
It does not establish that retirement has been completed.
Software Creation ≠ Software Lifecycle Completion.
Software Release ≠ Software Lifecycle Completion.
Software Deployment ≠ Software Lifecycle Completion.
Retirement Decision ≠ Retirement Completion. Recursive Software
Lifecycle
SLGA™ does not assume that governed software progresses through its
lifecycle only once.
Once software has been created, its lifecycle conditions may continue
to change:
Software Requirements may change.
Software Artifacts may change.
Dependencies may change.
Configurations may change.
Quality Conditions may change.
Security Conditions may change.
Release Authorization may change.
Deployment States may change.
Operational Environments may change.
Responsible Actors may change.
Control Authority may change.
Lifecycle Exceptions may arise or expire.
Previously effective controls may become ineffective.
Retirement conditions may change.
Residual dependencies may require continuing governance.
The architecture therefore becomes recursive:
Governed Software → Software Change → Change Impact Assessment →
Applicable Lifecycle Re-Entry → Renewed Governance → Release /Deployment where applicable → Continued Lifecycle Governance
Where software enters retirement:
Governed Software → Retirement Planning → End-of-Support Management →
Migration where applicable → Residual Dependency Management →Retirement Closure
Where materially relevant software reality changes:
Existing Lifecycle State → Material Change → Earliest Materially Affected
SLGA™ Governance Space → Reassessment → Updated Lifecycle StateA materially changed software purpose or requirement may require
re-entry into Software Requirements Standard.
A new creator, changed creation method, or materially altered software
creation process may require re-entry into Software Creation Standard.A new, changed, compromised, unavailable, or incorrectly identified
dependency may require re-entry into Software Dependency Standard.A changed build, version, artifact, or configuration baseline may
require re-entry into Software Configuration Standard.
New defects, changed quality criteria, or invalidated testing evidence
may require re-entry into Software Quality Standard.
New vulnerabilities, changed exposure conditions, or incomplete remediation
may require re-entry into Software Security Standard.A changed release candidate, invalidated readiness condition, revoked
authorization, or release withdrawal may require re-entry intoSoftware Release Standard.
A changed production version, deployment environment, authorization,
rollback, or recovery condition may require re-entry into SoftwareDeployment Standard.
A new or materially altered software change request, impact, coordination
requirement, or closure condition may require renewed governancewithin Software Change Management Standard.
Changed support conditions, migration requirements, residual dependencies,
or retirement closure conditions may require re-entry into SoftwareRetirement Standard.
A conflicting lifecycle state, unauthorized transition, changed exception,
failed control transfer, or ineffective lifecycle control may requirerenewed governance within Software Lifecycle Control Standard.
The architecture therefore supports targeted governed Software Lifecycle
Re-Entry rather than uncontrolled reconstruction of the entiresoftware lifecycle.
Re-enter the earliest materially affected governance space.
Reassess what materially changed. Preserve what remains valid.
Lifecycle re-entry must preserve historical traceability. Software
Identity & Configuration Structure
SLGA™ does not assume that one software product represents one stable
artifact, configuration, version, or operational state.
A single software product may contain:
multiple Software Components
multiple Software Dependencies
multiple Software Artifacts
multiple Builds
multiple Versions
multiple Configurations
multiple Release Candidates
multiple Authorized Releases
multiple Deployment Instances
multiple Operational Environments
multiple simultaneous Lifecycle States
or:a wider distributed Software System
Each software object may possess its own lifecycle attributes whileremaining connected to the broader software structure.
One release may be deployed across multiple environments.
Different environments may contain different versions.
A component may be retired in one environment while remaining
operational in another.
A software service may remain active while one of its dependencies
becomes unsupported.
Therefore:
One Software Product ≠ One Software Version.
One Software Version ≠ One Deployment Instance.
Release State ≠ Deployment State.
Declared State ≠ Verified State.
Local Software Retirement ≠ Complete System Retirement. Architectural
Position
SLGA™ governs the complete Software Lifecycle Governance lifecycle from
software purpose and requirements formation through legitimateretirement, with continuous control over lifecycle states,
transitions, exceptions, authority relationships, and control
effectiveness.
The architecture progresses through:
Software Requirements → Software Creation → Software Dependencies →
Software Configuration → Software Quality → Software Security →Software Release → Software Deployment → Software Change Management →
Software Retirement
Cross-Cutting Governance Layer: Software Lifecycle Control
Together, these Software Lifecycle Governance spaces govern whysoftware is required, what requirements and scope apply, how it is
created, what dependencies it uses, how its configurations and builds
remain controlled, what quality and security conditions are
established, when release is legitimate, how deployment is authorized
and verified, how changes return to applicable governance, how
retirement is completed, and whether lifecycle control remains
effective throughout the process.
SLGA™ therefore provides a complete governance path from the first
identification of why software should exist and what it must achieveto the establishment of when its operational lifecycle can
legitimately conclude while preserving applicable continuing
obligations and historical traceability. What SLGA™ Defines
SLGA™ defines:
- where Software Lifecycle Governance begins,
- how Software Purpose is established,
- how Software Requirements are specified,
- how Software Scope is governed,
- how Requirements Changes are controlled,
- how Requirements Traceability is preserved,
- how Development Methods are selected,
- how Software Creators are identified,
- how Automated Software Creation is controlled,
- how Software Artifacts are established,
- how Development Traceability is maintained,
- how Software Components are identified,
- how Dependency Origins are traced,
- how Dependency Suitability is assessed,
- how Component Introduction and Changes are controlled,
- how Dependency Continuity and Risk are governed,
- how Configuration Baselines are established,
- how Software Builds are governed,
- how Artifacts and Versions are identified,
- how Configuration Changes are controlled,
- how Build Reproducibility and Equivalence are assessed,
- how Software Quality Requirements are established,
- how Quality Criteria are defined,
- how Test Coverage is governed,
- how Software Defects are managed,
- how Software Quality Conditions are assessed,
- how Software Security Requirements are established,
- how Software Exposure is assessed,
- how Security Testing is controlled,
- how Vulnerabilities are managed,
- how Security Remediation is governed,
- how Release Candidates are managed,
- how Release Readiness is established,
- how Release Authorization is governed,
- how Release Records are maintained,
- how Release Withdrawal is governed,
- how Deployment Planning is established,
- how Deployment Authorization is governed,
- how Production Versions are controlled,
- how Deployment States are monitored,
- how Rollback and Recovery are governed,
- how Change Requests are managed,
- how Change Impacts are assessed,
- how Change Coordination is controlled,
- how Lifecycle Re-Entry is governed,
- how Change Closure is established,
- how Software Retirement is planned,
- how End-of-Support conditions are managed,
- how Software Migration is governed,
- how Residual Dependencies are managed,
- how Retirement Closure is verified,
- how Lifecycle State Consistency is controlled,
- how Lifecycle Transitions are governed,
- how Lifecycle Exceptions are managed,
- how Lifecycle Control Transfers preserve continuity,
- how Lifecycle Control Effectiveness is assessed,
- and how identifiable software remains governed throughout its
complete
lifecycle.
SLGA™ provides the official Software Lifecycle Governance language used for
software lifecycle identification, navigation, governanceclassification, structural diagnosis, lifecycle state analysis, change
governance, retirement governance, control assessment, and
architecture design across human-developed, automated, AI-enabled,
autonomous, embedded, industrial, enterprise, distributed,
infrastructural, and future software environments. Critical
Architectural Distinctions
Software Lifecycle Governance ≠ Software Engineering Execution
Software Created ≠ Software Governed
Software Purpose ≠ Verified Requirements
Requirements Documented ≠ Requirements Traceable
Software Generated ≠ Creation Authority Established
Automated Creation ≠ Autonomous Authority
Creator Identified ≠ Creation Authorized
Component Identified ≠ Dependency Suitable
Dependency Origin Known ≠ Dependency Risk Resolved
Dependency Available ≠ Dependency Continuity Guaranteed
Software Product ≠ Software Component
Software Version ≠ Software Build
Software Build ≠ Deployment Instance
Configuration Recorded ≠ Configuration Verified
Build Reproducibility ≠ Software Quality
Testing Performed ≠ Quality Established
Quality Assessment ≠ Security Assessment
Vulnerability Identified ≠ Vulnerability Remediated
Security Remediation Applied ≠ Remediation Effectiveness Verified
Release Candidate ≠ Authorized Release
Release Readiness ≠ Release Authorization
Release Authorization ≠ Deployment Authorization
Release Authorized ≠ Actual Deployment Verified
Deployment Executed ≠ Deployment Verified
Deployment Successful ≠ Lifecycle Control Effective
Change Requested ≠ Change Authorized
Change Implemented ≠ Change Verified
Change Verified ≠ Change Closed by default
Software Change ≠ Complete Lifecycle Restart by default
Lifecycle Re-Entry ≠ New Software Identity by default
Retirement Decision ≠ Retirement Completion
End of Support ≠ End of Operational Use
Software Migration ≠ Residual Dependency Elimination
Operational Retirement ≠ Elimination of Continuing Governance Obligations
Declared Lifecycle State ≠ Verified Lifecycle State
Technical Transition Capability ≠ Legitimate Transition Authority
Transition Executed ≠ Transition Verified
Exception Requested ≠ Exception Approved
Exception Authorized ≠ Requirement Eliminated
Exception Approved ≠ Residual Risk Resolved
Responsibility Assigned ≠ Authority Established
Authority Established ≠ Capability Available
Control Transferred Administratively ≠ Control Continuity Verified
Control Documented ≠ Control Implemented
Control Implemented ≠ Control Effective
Control Activity Recorded ≠ Control Objective Achieved
Agent Instruction ≠ Enforced Authority Boundary
Task Authority ≠ Constituent Action Authority
Current Software State ≠ Complete Software Lifecycle History
Cross-Architecture Governance Boundaries SLGA™ ↔ GOA™ — GovernanceArchitecture
GOA™ — Governance Architecture governs the constitutional structure,
authority, boundaries, delegation, validation, and continuity ofgovernance.
SLGA™ — Software Lifecycle Governance Architecture governs the software
lifecycle under applicable governance requirements and legitimateauthority.
General Governance Authority ≠ Software Lifecycle Authorization. SLGA™
↔ ORA™ — Operational Reality Architecture
ORA™ — Operational Reality Architecture governs what exists and occurs in
actual Operational Reality.SLGA™ — Software Lifecycle Governance Architecture governs the software
lifecycle conditions, states, decisions, and controls applicable tothat operational reality.
Declared Software State ≠ Actual Operational State. SLGA™ ↔ AGA™ —
Accountability Governance Architecture
AGA™ — Accountability Governance Architecture governs responsibility,
accountability, attribution, authority, and related accountabilityrelationships.
SLGA™ — Software Lifecycle Governance Architecture governs software
lifecycle requirements and controls involving those relationships.Responsibility Assigned ≠ Lifecycle Control Effective. SLGA™ ↔ ADIT® —
Continuous Audit & Evidence Governance Architecture
ADIT® governs evidential observation, preservation, correlation,
verification, examination, and auditability.SLGA™ governs software lifecycle requirements, decisions, states, and
controls supported by relevant evidence.Evidence Recorded ≠ Lifecycle Requirement Satisfied. SLGA™ ↔ VALIDOS™
— Validation Governance Architecture
VALIDOS™ — Validation Governance Architecture governs whether a
validation basis sufficiently supports a Validation Determination.SLGA™ — Software Lifecycle Governance Architecture governs software
lifecycle decisions and requirements that may depend on validatedinformation.
Validation Determination ≠ Release Authorization. SLGA™ ↔ INTEGROS® —
Integrity Governance Architecture
INTEGROS® — Integrity Governance Architecture governs integrity across
objects, states, evidence, and processes.SLGA™ — Software Lifecycle Governance Architecture governs software
lifecycle requirements and controls.General Integrity Governance ≠ Software Lifecycle Governance. SLGA™ ↔
OBIDENITY® — Origin-Bound Identity Governance Architecture
OBIDENITY® — Origin-Bound Identity Governance Architecture governs
Origin, Identity, Ownership, Authority, Permission, Responsibility,Provenance, Transfer, Continuity, and Auditability.
SLGA™ — Software Lifecycle Governance Architecture governs identifiable
software objects and their lifecycle relationships.Software Identity ≠ Software Lifecycle State. SLGA™ ↔ AIG® — AI
Governance Architecture
AIG® — AI Governance Architecture governs AI behavioral governance and
behavioral integrity.SLGA™ — Software Lifecycle Governance Architecture governs the software
lifecycle of AI-enabled software.AI Behavior ≠ Software Lifecycle Governance. SLGA™ ↔ ASGA™ —
Autonomous Systems Governance Architecture
ASGA™ — Autonomous Systems Governance Architecture governs
autonomous-system authority, execution, constraints, coordination,intervention, escalation, and operational governability.
SLGA™ — Software Lifecycle Governance Architecture governs software
lifecycle requirements and controls applicable to autonomous softwaresystems.
Autonomous Execution Capability ≠ Software Lifecycle Authority.
Autonomous Action ≠ Authorized Lifecycle Transition. SLGA™ ↔ SIMULOS®
— Simulation Governance Architecture
SIMULOS® — Simulation Governance Architecture governs simulation purpose,
structure, execution, outputs, and lifecycle.SLGA™ — Software Lifecycle Governance Architecture governs actual
software lifecycle objects, decisions, and states.Simulated Deployment ≠ Actual Deployment.
Simulated Control Success ≠ Verified Operational Control
Effectiveness. SLGA™ ↔ Software Engineering Systems
SLGA™ — Software Lifecycle Governance Architecture governs the software
lifecycle.Software engineering systems govern coding, technical implementation,
testing execution, build operations, deployment execution, maintenanceactivities, and related engineering workflows.
Software Engineering Execution ≠ Software Lifecycle Governance. SLGA™
↔ Software Security Systems
SLGA™ — Software Lifecycle Governance Architecture governs the software
lifecycle, including software security requirements, exposures,testing control, vulnerability management, and remediation governance.
Specialized software security systems perform technical detection,
analysis, protection, testing, and remediation activities.Security Tool Execution ≠ Security Governance Completion. Compatible
OOF® Architectures
- GOA™ — Governance Architecture
- ORA™ — Operational Reality Architecture - AGA™ — AccountabilityGovernance Architecture - ADIT® — Continuous Audit & Evidence
Governance Architecture - VALIDOS™ — Validation Governance
Architecture - INTEGROS® — Integrity Governance Architecture -
OBIDENITY® — Origin-Bound Identity Governance Architecture - AIG® — AI
Governance Architecture - ASGA™ — Autonomous Systems Governance
Architecture - SIMULOS® — Simulation Governance Architecture
Canonical Principle
SLGA™ does not prescribe software development methodologies, replacesoftware engineering, perform software creation, execute testing,
release, deployment, change, or retirement operations, independently
grant lifecycle authority, replace specialized security or quality
requirements, govern general accountability, perform general evidence
governance, or substitute for contractual, regulatory, safety,
technical, or other domain-specific decision systems. SLGA™ governs
the methodological conditions under which identifiable software
becomes requirements-grounded, creation-traceable, dependency-aware,
configuration-controlled, quality-assessed, security-governed,
release-authorized, deployment-verifiable, change-controlled,
legitimately retired, and continuously governed through consistent
lifecycle states, authorized transitions, bounded exceptions,
preserved control continuity, and evidence-supported control
effectiveness. Canonical Closing Statement
SLGA™ serves as the official Software Lifecycle Governance reference map
for software products, applications, components, services, platforms,AI systems, autonomous software agents, digital infrastructure,
embedded software, and future software systems. By defining the
primary governable spaces of the complete Software Lifecycle, SLGA™
provides the architecture used to establish software purpose and
requirements, govern creation, identify and control dependencies,
preserve configuration and version traceability, evaluate quality and
security conditions, establish legitimate release authorization,
govern deployment and actual operational state, manage software
changes and targeted lifecycle re-entry, establish retirement
conditions and closure, and preserve lifecycle state consistency,
legitimate transitions, bounded exceptions, control continuity, and
verifiable control effectiveness across the complete software
lifecycle. SLGA™ therefore establishes Software Lifecycle Governance
as a distinct methodological layer around software itself, enabling
software to remain identifiable, requirements-grounded,
creation-traceable, dependency-aware, configuration-controlled,
quality-assessed, security-governed, release-authorized,
deployment-verifiable, change-controlled, legitimately retired, and
continuously governable regardless of whether software is developed by
humans, generated through automation, operated through AI systems,
modified by autonomous agents, deployed across distributed
infrastructure, or maintained within future software ecosystems.