System: MWMS
Document Type: Core Operating Standard
Authority Level: MCR Source Of Truth
Status: Active
Version: v1.4
Primary Location: MCR
Future Operational Destination: HeadOffice Brain, MWMS Brain, AIBS Brain
Parent Page: HeadOffice
Owner: Martyn
Developer Boundary: Do Not Touch M’s Active Build Areas Unless Specifically Assigned
Source Of Truth: MCR
Last Reviewed: 2026-06-27
Source / Origin: MWMS AI Agent Operations Core v1.3 + AI Automations By Jack AI Agents Block Covering Make AI Agents, n8n Agents, Email Classification, Lead Appointment Agents, Model Interchangeability, RAG Retrieval, Voice Input, Reusable Tools And Agent Testing
MWMS Classification: AI Workforce Operating Standard / Agentic Workflow Governance / AI Operating System Foundation / Agent Hierarchy Standard / Persistent AI Employee Operations Standard / Agent Necessity Standard / Reusable Capability Governance Standard
Primary Brain: HeadOffice Brain
Supporting Brains: MWMS Brain, AIBS Brain, Automation Brain, Operations Brain, Data Brain, Risk Brain, Compliance Brain, SIT Brain, Research Brain, Affiliate Brain, Content Brain, Finance Brain, Experimentation Brain, Sales Brain, Project Manager Brain
Related Pages: MWMS AI Operating System Architecture Framework, MWMS Context Engineering Framework, MWMS AI Automation Security And Risk Checklist, MWMS Constraint Based Learning And Build Focus Rule, MWMS AI Agent Memory And Context Framework, MWMS AI Employee Role Card Standard, MWMS AI Tool Permission And Access Framework, MWMS AI Tool Permission Record Template, MWMS AI Agent Skill Library Framework, MWMS Advanced AI Capability Stack Framework, MWMS Client AI Interface Selection Framework, MWMS Agentic Work Unit Standard, MWMS Brain Routing Rule, MWMS Brain To Brain Request Protocol, MWMS Supabase Event Schema, MWMS AI Agent Orchestration Framework, MWMS AI Agent Failure Handling And Escalation Protocol, MWMS Independent Model Review And Rescue Routing Framework, MWMS External Knowledge Engine And Reasoning Agent Separation Framework, MWMS AI Work Session Closure And Knowledge Commitment Protocol, MWMS AI Observability Metadata Standard, MWMS AI Usage And Cost Visibility Standard, MWMS Prompt Architecture And Automation Output Reliability Framework, MWMS n8n Operating And Deployment Standard, MWMS AI Tool Access Browser Automation And MCP Governance Framework, MWMS Lead Intake Qualification And Follow Up Automation Framework, MWMS Client Communication Automation Framework, MWMS AI Assisted Outreach And Sales Follow Up Automation Framework, MWMS Source Visibility And Evidence Display Standard, MWMS AI Employee Evaluation Scorecard Standard, MWMS Agent Loop Control Framework, MWMS Next Action Picker Standard, Project Manager Brain Canon
Source Evidence
The existing MWMS AI Agent Operations Core defines MWMS AI work as governed operational work using agents, orchestration, tasks, outcomes, structured workflows, validation, handoffs, reporting, persistent operation, independent review, deterministic rescue, observability, cost control and learning loops.
The newly absorbed AI Agents block strengthens this standard with:
- a formal decision between deterministic automation and agentic operation
- reusable agent tool and capability libraries
- independent tool testing before agent integration
- specialist classification before specialist action
- hierarchical classification for complex shared channels
- explicit action autonomy levels
- stronger separation between agent role, model, tools, memory and state
- stable agent contracts that remain independent of a specific model or platform
- voice and message inputs as governed command channels rather than automatic authority
- bounded email, calendar, task and business-system actions
- stronger RAG ingestion and retrieval boundaries
- the principle that tool execution success is not the same as business outcome success
Purpose
The purpose of this document is to define the MWMS AI Agent Operations Core.
The MWMS AI Agent Operations Core establishes the operating model for how MWMS designs, governs, manages, validates, monitors and improves:
- AI Employees
- AI workflows
- Brain to Brain handoffs
- automated tasks
- persistent agents
- scheduled routines
- model routing systems
- reporting systems
- knowledge systems
- remote command channels
- business execution systems
- reusable agent capabilities
- specialist classification systems
- bounded autonomous actions
- agent testing and evaluation
This standard exists because MWMS is not being built as:
- a simple chatbot system
- a prompt library
- a collection of disconnected automations
- a collection of tool specific AI tricks
- a loose group of models
- an unmonitored autonomous agent network
- one all powerful agent with access to everything
- a set of platform dependent workflows that cannot move or be audited
MWMS is being built as a governed AI business operating ecosystem.
Inside MWMS, AI must function as a structured workforce.
That means every serious AI interaction must be converted into a controlled operational unit with:
- a defined purpose
- a defined role
- a clear input
- a clear task
- a permitted scope
- selected context
- approved tools
- an appropriate model or capability route
- a required output
- a validation standard
- an independent review route where required
- a failure threshold
- a rescue path
- a handoff destination
- a business outcome
- a risk level
- an observability requirement
- a knowledge commitment requirement
- a learning loop where appropriate
- an action autonomy level
- a tested capability contract
- a clear reason why an agent is justified
Core Principle
The core principle is:
Use the simplest reliable operating structure that can complete the work safely.
An AI agent is not automatically superior to a deterministic automation.
Agentic capability should be introduced only when the business task genuinely requires judgement, adaptive tool choice, conversational continuity, dynamic planning or non linear coordination.
Where fixed rules can safely complete the work, MWMS should prefer fixed rules.
Where one AI processing step is enough, MWMS should not build a persistent agent.
Where one specialist agent is enough, MWMS should not build a multi agent hierarchy.
Where an external action creates risk, the system should recommend, draft or prepare before it executes.
Agent Necessity Test
Before creating or deploying an AI agent, MWMS must determine whether an agent is justified.
Question 1: Can A Deterministic Automation Complete The Work?
Use a deterministic automation when:
- the sequence is known
- conditions can be defined
- the same inputs should produce the same route
- tool selection does not require judgement
- the workflow does not need conversational memory
- the task is repetitive and stable
- error handling can be explicitly defined
Question 2: Is AI Needed Only For One Processing Step?
Use an automation with an AI processing step when:
- the workflow is deterministic
- only extraction, classification, rewriting, scoring or summarisation requires a model
- the model does not need to choose tools
- the model does not control the workflow
- the model output can be validated before the next step
Question 3: Is Routing Deterministic?
Use a deterministic router when:
- categories are stable
- rules are sufficient
- risk is high
- explainability is important
- one category clearly maps to one destination
Question 4: Is Model Judgement Required?
An agent may be justified when:
- the request is ambiguous
- the system must interpret intent
- several actions may be valid
- the system must adapt to intermediate results
- the next step cannot be fully predefined
Question 5: Must The System Choose Between Multiple Tools?
An agent may be justified when:
- different requests require different approved tools
- the order of tool use changes
- tool results determine the next step
- several tools may be combined in one request
Question 6: Is Conversational Context Required?
An agent may be justified when:
- the user expects a continuing dialogue
- the current request depends on prior messages
- the system must preserve unresolved context
- clarification and follow up are part of the workflow
Question 7: Is Multi Step Coordination Required?
An agent may be justified when:
- the work requires planning
- the agent must gather evidence, interpret it and act
- several specialist capabilities must be coordinated
- the task cannot be represented as one fixed linear sequence
Question 8: Does The Added Complexity Improve The Business Outcome?
An agent is not justified merely because it is technically possible.
The system must show that agentic operation improves:
- accuracy
- speed
- decision quality
- user experience
- adaptability
- operational leverage
- evidence quality
- business outcome
Agent Necessity Outcomes
Every proposed agent must receive one of the following outcomes:
- Deterministic Automation
- Automation With AI Processing Step
- Deterministic Router
- Single Agent
- Agent Plus Checker
- Router Plus Specialist
- Specialist Agent Group
- Persistent Agent
- Agent With Human Approval
- Agent Not Justified
Automation Before Agent Rule
MWMS must not use an AI agent to perform work that can be completed more reliably, cheaply and safely through deterministic automation.
The burden of proof sits with the proposed agent.
Scope
This standard applies to:
- HeadOffice AI Employees
- Brain specific AI Employees
- AIBS client AI Employees
- persistent cloud agents
- temporary session agents
- workflow agents
- research agents
- checking agents
- routing agents
- sales agents
- support agents
- content agents
- finance agents
- automation agents
- project coordination agents
- voice triggered agents
- message triggered agents
- web embedded agents
- RAG enabled agents
- multi model systems
- reusable tool libraries
- agent accessible sub workflows
- scheduled background workers
- remote command systems
This standard does not authorize any AI Employee to bypass:
- Brain ownership
- task structure
- tool permissions
- client boundaries
- human approval
- financial authority
- compliance review
- security controls
- source of truth rules
- Project Manager Brain task governance
- MCR authority
- shutdown requirements
The Seven Operating Foundations
Every serious MWMS AI system must contain seven operating foundations:
- AI Employee
- Context
- Orchestration
- Task
- Tools And Capabilities
- Validation
- Outcome
- AI Employee
An AI Employee is a governed role based AI operating unit.
An AI Employee must define:
- name
- owning Brain
- purpose
- role boundary
- authority level
- allowed inputs
- required context
- allowed outputs
- permitted tools
- prohibited actions
- model or capability requirements
- validation requirements
- handoff destination
- escalation rules
- success metrics
- failure thresholds
- action autonomy level
- logging requirements
Agent Rule
No AI Employee should perform undefined work.
Every AI Employee must know:
- what it may do
- what it must not do
- what context it requires
- what tools it may use
- which model capability is appropriate
- how its work is checked
- where its output goes
- whether it may execute or only recommend
- what happens when confidence is low
- Context
Context is the selected information required to perform the task correctly.
Context may include:
- current user instruction
- uploaded files
- MCR standards
- Brain rules
- active workflow state
- current save point
- role card
- source material
- prior decisions
- business objective
- tool permissions
- risk rules
- failure history
- retrieved evidence
- current system status
- customer or lead context
- project and workstream context
- consent state
- action history
- model and prompt version
Context Rule
Use the right context for the current task, not all available memory.
AI Employees must not act from:
- stale memory
- missing context
- unverified system assumptions
- unrelated historical material
- deprecated instructions
- wrong client data
- unapproved personal information
- expired permissions
- model generated facts presented as source context
Context Separation Rule
MWMS must distinguish:
- current instruction
- session memory
- work memory
- durable operational state
- retrieved internal knowledge
- current external research
- tool results
- model inference
These sources must not be merged without traceability.
- Orchestration
Orchestration coordinates:
- Brains
- AI Employees
- tasks
- context
- models
- tools
- validation
- handoffs
- rescue
- reporting
- knowledge commitment
- autonomy levels
- capability permissions
Orchestration decides:
- which Brain owns the request
- which AI Employee acts
- whether automation or an agent is needed
- whether one agent or several agents are needed
- what model or specialist capability is required
- what context is supplied
- what tools are activated
- what order work follows
- what validation is required
- what happens after failure
- where the result goes
- whether human review is needed
- what is logged
- what becomes durable knowledge
- whether an action may be executed
Orchestration Rule
AI capability does not become business value until it is routed, sequenced, validated, recovered where necessary and connected to an outcome.
- Task
A task is the smallest controlled unit of AI work inside MWMS.
A MWMS AI task should include:
- task title
- task type
- source
- originating Brain
- assigned Brain
- assigned AI Employee
- agent necessity outcome
- agent pattern
- model or capability route
- input payload
- required context
- required output
- priority
- status
- risk level
- tool permission level
- action autonomy level
- validation requirement
- independent review requirement
- failure threshold
- rescue route
- handoff destination
- final outcome
- event log
- knowledge commitment requirement
Task Rule
A vague request must be converted into a structured task before it becomes operational work.
- Tools And Capabilities
Tools allow AI Employees to retrieve information or perform action.
Tool access may include:
- search
- files
- databases
- communication
- browser automation
- APIs
- MCP
- local CLI tools
- dashboards
- publishing
- deployment
- monitoring
- client systems
- calendar systems
- email systems
- project systems
- document generation
- retrieval systems
- notification systems
Tool Rule
Tool access must match:
- role
- task
- risk
- authority
- data boundary
- client boundary
- approval
- logging requirement
- autonomy level
Technical access does not create operational permission.
Reusable Tool Capability Library Principle
MWMS should build approved reusable capabilities once and allow suitable AI Employees to call them according to role, permission, risk and business need.
Examples include:
- internet research
- internal knowledge retrieval
- email draft creation
- calendar availability check
- calendar proposal preparation
- task creation request
- Supabase record creation
- document generation
- notification sending
- source verification
- structured data extraction
- content formatting
- report generation
A reusable capability must remain independent of any one agent where practical.
It must not be rebuilt differently inside every workflow without reason.
Reusable Capability Contract
Every reusable capability should define:
Capability Name:
Capability ID:
Owning Brain:
Purpose:
Business Outcome:
Accepted Inputs:
Required Fields:
Optional Fields:
Output Schema:
Systems Accessed:
Read Or Write Status:
Permission Level:
Action Autonomy Level:
Preconditions:
Human Approval Requirement:
Validation Requirement:
Failure Behaviour:
Timeout:
Retry Limit:
Idempotency Rule:
Maximum Cost:
Logging Requirement:
Version:
Allowed AI Employees:
Prohibited Uses:
Shutdown Or Revocation Method:
Capability Rule
An AI Employee may call only capabilities that are:
- approved
- documented
- tested
- version compatible
- permitted for its role
- appropriate for the current task
- safe for the current autonomy level
Capability Reuse Rule
A shared capability must not silently change behaviour for every connected agent.
Material capability changes require:
- version update
- regression testing
- dependency review
- affected agent review
- rollback path
- change logging
- Validation
Validation determines whether AI work may be trusted or executed.
Validation may include:
- output checks
- source checks
- schema checks
- deterministic tests
- independent model review
- specialist review
- human review
- SIT enforcement
- tool result checks
- business outcome checks
- duplicate execution checks
Validation Rule
Important AI output must be checked before it becomes operational truth or external action.
- Outcome
An outcome is the business result produced by AI work.
Valid outcomes may include:
- decision
- rejection
- parking
- test candidate
- campaign action
- report
- compliance warning
- research finding
- task
- routed action
- saved learning
- system improvement
- AIOS maturity step
- client value proof
- verified completion
- approved draft
- approved meeting proposal
- qualified lead handoff
- failed action safely contained
Outcome Rule
AI output is not complete until its business outcome and destination are known.
Tool Execution Versus Outcome Rule
A successful tool call does not prove that the business outcome is correct.
Examples:
- an email may send successfully but contain the wrong commitment
- a calendar event may be created successfully at the wrong time
- a task may be stored successfully under the wrong project
- a RAG query may return results that are outdated
- a report may generate successfully with unsupported claims
MWMS must validate both execution and outcome.
Agent Hierarchy Design Layer
Agent hierarchy means using coordinated AI Employees or agents to complete work too complex, risky or multidimensional for one general agent.
Hierarchy may include:
- master agents
- router agents
- specialist agents
- research agents
- extraction agents
- structure agents
- synthesis agents
- checking agents
- handoff agents
- rescue agents
- sub workflows
- Brain specific AI Employees
Hierarchy is not automatically superior.
It is useful when complexity requires role separation.
It is wasteful when one clear agent can complete the task.
Single Agent First Rule
Use a single AI Employee when:
- the task has one clear purpose
- one role can safely complete it
- tool selection is limited
- the risk is low
- the context is contained
- output can be checked simply
Do not create a hierarchy merely to appear advanced.
Specialist Separation Rule
Use separate specialists when:
- different expertise is required
- permissions differ
- independent judgement matters
- one role should not both create and approve
- evidence gathering and decision making should be separated
- client or data boundaries differ
Agent Roles
- Master Agent
Coordinates a larger work unit.
A Master Agent may:
- interpret a structured request
- select approved sub workflows
- assign specialists
- collect results
- route for synthesis
- route for validation
- stop or escalate
A Master Agent must not become an unrestricted system administrator.
- Router Agent
Classifies and assigns work.
A Router Agent may determine:
- Brain ownership
- agent role
- task type
- risk level
- required context
- next route
A Router Agent must not complete specialist work merely because it can.
- Research Agent
Gathers evidence.
A Research Agent may:
- search
- retrieve
- compare
- capture sources
- identify gaps
- flag conflicts
It must separate evidence from inference.
- Extraction Agent
Converts source material into structured fields.
It must not invent missing information.
- Structure Agent
Converts approved information into:
- framework
- checklist
- protocol
- workflow
- page structure
- decision model
- structured output
Structure must improve reuse, not merely increase length.
- Specialist Agent
Performs a narrow expert role.
Examples:
- Compliance Review Agent
- Finance Break Even Agent
- Ads Policy Agent
- Data Quality Agent
- Automation Risk Agent
- Security Review Agent
- Chatbot Handoff Agent
- Interface Selection Agent
- Sales Enquiry Agent
- Calendar Proposal Agent
Specialist Agents must be narrow, role carded, permissioned and governed.
- Synthesis Agent
Combines multiple outputs.
May:
- merge findings
- remove duplication
- reconcile conflicts
- organise sections
- preserve warnings
- create final reports
- create final MCR output
Where several agents contribute, synthesis ownership must be clear.
- Checking Agent
Reviews:
- completeness
- source grounding
- structure
- ownership
- parent page accuracy
- duplication
- risk
- tool permissions
- unsupported claims
- human review requirements
- action autonomy
- tool selection
- business outcome alignment
Important work must be checked before trust.
- Handoff Agent
Prepares:
- task summary
- next action
- owner
- context pack
- risk note
- destination
- development brief
- client handover
No important AI output should be orphaned.
- Rescue Agent
Receives failed work after the retry threshold.
May:
- diagnose failure
- challenge inherited assumptions
- identify missing tools or context
- propose a materially different path
- define a new verification gate
- recommend stopping or escalating
A Rescue Agent must not simply repeat the failed route.
Agent Hierarchy Patterns
Pattern 1 — Deterministic Automation
A fixed workflow completes the task.
Use where judgement is not required.
Pattern 2 — Automation With AI Processing Step
A fixed workflow uses a model for one bounded operation.
Use for:
- classification
- extraction
- summarisation
- rewriting
- scoring
Pattern 3 — Single Agent
One AI Employee handles the task.
Use for simple, low risk work requiring limited judgement.
Pattern 4 — Agent Plus Checker
One AI Employee performs the work.
A separate checker reviews it.
Use for important but bounded tasks.
Pattern 5 — Router Plus Specialist
A router assigns the request.
A specialist completes it.
Use where correct ownership is the main challenge.
Pattern 6 — Research Plus Synthesis
One agent gathers evidence.
Another interprets and structures it.
Use where source quality matters.
Pattern 7 — Multi Specialist Plus Synthesis Plus Checker
Several specialists contribute.
One agent synthesises.
Another validates.
Use for complex, high value or high risk work.
Pattern 8 — Master Agent Plus Sub Workflows
A Master Agent calls defined sub workflows with structured contracts.
Use for modular AIOS systems.
Pattern 9 — Primary Agent Plus Independent Reviewer
One agent produces the output.
A cognitively independent model or specialist reviews it.
Use for:
- governance
- finance
- compliance
- security
- architecture
- high risk decisions
Pattern 10 — Primary Agent Plus Rescue Route
The primary route attempts the task.
After two materially identical failures, work transfers to a different model, specialist or deterministic process.
Use where repeated execution is possible.
Classification Before Specialist Action
Where requests arrive through a shared channel, MWMS must classify before specialist action.
Shared channels may include:
- email inboxes
- support inboxes
- Telegram
- Slack
- web chat
- forms
- voice channels
- Brain Room requests
- task intake queues
The classification stage should determine:
- request type
- business importance
- Brain ownership
- specialist role
- urgency
- risk
- consent status
- required action level
- whether a response is required
The classifier should not perform the final specialist action unless the workflow explicitly authorizes that combined role.
Hierarchical Classification Rule
When many similar categories exist, use hierarchical classification.
Example:
First Level
- Sales
- Support
- Finance
- Internal
- Compliance
- Newsletter
- Spam
- Unknown
Second Level For Sales
- Information Request
- Qualified Interest
- Pricing Request
- Call Request
- Objection
- Follow Up
- Existing Opportunity
- Unqualified
A small first level classifier followed by narrow specialist classification is preferred over one overloaded classifier with too many ambiguous categories.
Unknown Classification Rule
Unknown or low confidence requests must not be forced into a specialist route.
They should:
- request clarification
- route to human review
- enter an unknown queue
- remain unexecuted
Agent Input And Output Contract
Every agent inside a hierarchy must have an input and output contract.
Agent Name:
Owning Brain:
Role:
Authority Level:
Action Autonomy Level:
Input Received:
Input Source:
Caller Identity:
Trust Level:
Context Required:
Model Or Capability Required:
Tool Access Allowed:
Tool Access Prohibited:
Decision Scope:
Output Required:
Output Format:
Handoff Destination:
Validation Requirement:
Failure Threshold:
Rescue Route:
Stop Conditions:
Logging Requirement:
Knowledge Commitment Requirement:
A hierarchy fails when agents do not know what they receive, what they produce and who receives the result.
Agent Decision Contract
Every decision capable agent should define:
Permitted Decisions:
Prohibited Decisions:
Evidence Required:
Tool Selection Rules:
Approval Requirements:
Confidence Threshold:
Missing Context Behaviour:
Conflict Behaviour:
Escalation Rule:
Execution Boundary:
Decision Rule
The agent must not convert uncertainty into confident action.
Structured Sub Workflow Contract
Automated agent hierarchies should define:
- expected structured input
- required fields
- optional fields
- output schema
- source reference
- task ID
- requesting agent
- receiving agent
- client ID
- error response
- validation rule
- idempotency
- timeout
- failure behaviour
- capability version
- action autonomy level
Sub agents and sub workflows require clear structured contracts before automation.
Five Level Agent Testing Model
Every production agent must be tested at five levels.
Level 1 — Tool Unit Test
Confirm that each capability works independently.
Test:
- valid input
- invalid input
- permission enforcement
- expected output
- timeout
- retry
- duplicate request
- error response
- logging
Level 2 — Input Contract Test
Confirm that the agent:
- accepts valid input
- rejects malformed input
- detects missing fields
- preserves caller identity
- handles unsupported attachments
- handles uncertain transcription
- prevents wrong client context
Level 3 — Tool Selection Test
Confirm that the agent:
- selects the correct capability
- does not call irrelevant tools
- does not call prohibited tools
- stops when no suitable tool exists
- handles two plausible tools safely
- respects risk and approval rules
Level 4 — Action Execution Test
Confirm that the chosen capability:
- performs the intended action
- uses the correct target
- uses the correct data
- prevents duplicates
- records the action
- respects approval
- fails safely
Level 5 — End To End Business Outcome Test
Confirm that the complete workflow:
- solves the intended business problem
- produces the correct outcome
- reaches the correct destination
- preserves evidence
- records state
- creates no hidden side effects
- supports recovery
- meets cost and timing boundaries
Required Adversarial And Failure Tests
Also test:
- ambiguous request
- missing context
- conflicting context
- failed tool
- tool timeout
- repeated request
- duplicate execution
- unauthorized action
- approval required action
- cost limit
- memory contamination
- stale knowledge
- wrong client context
- malicious or misleading input
- unsupported instruction
- interrupted workflow
- model fallback
Testing Rule
Do not test only whether the agent can complete the happy path.
Test whether it knows when not to act.
Action Autonomy Levels
Every external or state changing capability must define one of five autonomy levels.
Level 1 — Recommend
The AI Employee recommends an action.
It does not prepare or execute the action.
Level 2 — Draft
The AI Employee creates a reviewable draft.
Examples:
- email draft
- response draft
- task draft
- meeting suggestion
- record update proposal
Level 3 — Prepare
The AI Employee prepares the action for approval.
Examples:
- calendar proposal
- configured task record
- prepared CRM update
- prepared publishing package
- prepared deployment plan
The action remains unexecuted.
Level 4 — Execute After Approval
The AI Employee may execute only after a valid approval event.
The approval must be:
- attributable
- current
- specific
- recorded
- within the approver’s authority
Level 5 — Bounded Autonomous Execution
The AI Employee may execute without case by case approval only inside a narrow pre approved boundary.
Bounded autonomy requires:
- approved task category
- approved data scope
- approved systems
- approved action types
- approved schedule or trigger
- duplicate protection
- cost boundary
- monitoring
- complete logging
- stop condition
- revocation
- emergency shutdown
- periodic review
Default External Action Rule
External communication, calendar booking, publishing, financial action, customer state changes, task creation and system modifications default to Draft or Prepare unless a higher autonomy level has been explicitly approved.
Email Action Rule
An AI Employee must not send email merely because it can create a suitable response.
The system must define whether it may:
- recommend
- draft
- prepare
- send after approval
- send autonomously within a bounded case
Calendar Action Rule
Before creating an event, the system must resolve:
- date
- year
- timezone
- duration
- attendee
- attendee email
- calendar
- availability
- conflict status
- meeting type
- location or meeting link
- approval status
Task Creation Rule
Tasks created by AI must route into the approved Project Manager Brain or task source of truth.
Notion, spreadsheets, email or chat tools must not become competing operational task systems unless explicitly approved.
Remote Command Channel Standard
Remote command channels may include:
- mobile messages
- secure chat
- voice commands
- webhooks
- cloud task submission
- remote consoles
A remote command channel must:
- authenticate the sender
- preserve sender identity
- classify the request
- determine Brain ownership
- assess risk
- restrict available actions
- require approval where needed
- log the command
- support revocation
- prevent unrestricted system control
- record transcription confidence where voice is used
A message arriving through an approved channel is an input.
It is not automatically an authorised action.
Voice Input Rule
Voice is an interface, not authority.
Voice input should follow:
Audio
↓
Transcription
↓
Confidence Check
↓
Critical Field Confirmation
↓
Classification
↓
Normal Agent Workflow
Names, dates, amounts, addresses, approvals and destructive actions must be confirmed when transcription confidence is insufficient.
Model And Capability Routing
MWMS may route different work units to different models or systems.
Possible roles include:
- primary reasoning model
- low cost bulk processor
- multimodal specialist
- long context model
- code capable model
- independent reviewer
- rescue model
- local private model
- deterministic validator
Model selection should consider:
- task complexity
- required modality
- cost
- speed
- context length
- tool compatibility
- reliability
- privacy
- independence
- risk
- structured output performance
- current availability
- fallback readiness
Model Interchangeability Rule
The AI Employee role, context contract, tool layer, output contract and business outcome must remain separable from the model provider.
MWMS must not define a permanent operating role around one temporary model brand.
Model changes require:
- evaluation
- output comparison
- tool compatibility testing
- cost review
- risk review
- fallback validation
- version logging
Persistent AI Employee Operations
A persistent AI Employee operates beyond one live chat session.
Persistent operation may include:
- scheduled work
- inbox monitoring
- source monitoring
- report generation
- post deployment checks
- recurring research
- remote requests
- queue processing
- knowledge review
Persistent agents require:
- named owner
- defined role
- approved environment
- approved tools
- approved schedule or trigger
- execution boundaries
- cost boundaries
- logging
- monitoring
- failure threshold
- stop condition
- revocation
- emergency shutdown
- human escalation
Background Worker Standard
A background worker performs approved work without continuous human interaction.
A background worker must define:
Worker Name:
Owning Brain:
Purpose:
Trigger:
Schedule:
Input Source:
Context Source:
Tools:
Permission Level:
Action Autonomy Level:
Output:
Destination:
Maximum Runtime:
Maximum Cost:
Retry Limit:
Failure Threshold:
Rescue Route:
Notification Rule:
Shutdown Method:
Human Owner:
Status:
A background worker must not continue indefinitely after unresolved failure.
Scheduled Routine Standard
Scheduled routines may support:
- health checks
- inbox processing
- source ingestion
- status reports
- cost reports
- knowledge review
- security scans
- post deployment checks
- recurring research
Every scheduled routine must define:
- business purpose
- frequency
- owner
- input
- action
- output
- duplicate prevention
- expiry or review date
- failure alert
- cost limit
- shutdown method
A recurring task should not remain active merely because it was once useful.
Post Deployment Watchdog
A monitored AI workflow may perform post deployment checks.
Possible checks include:
- uptime
- error logs
- failed requests
- broken integrations
- response quality
- cost spikes
- permission failures
- security warnings
- data integrity issues
- capability version drift
A watchdog must not automatically make broad corrective changes unless explicitly authorised.
Monitoring and remediation are different permission levels.
External Knowledge Engine Operations
AI Employees may use external knowledge engines for:
- large source storage
- source retrieval
- historical continuity
- semantic search
- session history access
- cross interface knowledge
- source grounded artifact generation
The knowledge engine is responsible for storage and retrieval.
The reasoning agent is responsible for interpretation and authorised action.
The knowledge engine must not become final authority.
The reasoning agent must not become the sole organisational archive.
RAG Ingestion Boundary
A document must not enter production retrieval merely because it was uploaded.
Before ingestion, confirm:
- source identity
- owner
- client or company
- approval status
- version
- effective date
- expiry date
- duplicate status
- superseded status
- access policy
- tenant boundary
- file safety
- deletion policy
RAG Retrieval Boundary
Retrieved knowledge must preserve:
- source document
- version
- section or chunk
- retrieval timestamp
- approval status
- tenant
- confidence or relevance signal
- conflict status
The agent must fail safely when:
- no relevant evidence exists
- results conflict
- results are below threshold
- the source is superseded
- the source is unapproved
- the caller lacks access
Internal knowledge, external research, memory and model inference must remain distinguishable.
Session Closure And Knowledge Commitment
A meaningful AI work session must conclude with a closure process.
Closure should record:
- objective
- completed work
- attempted work
- decisions
- corrections
- lessons
- open threads
- current save point
- next action
- commitment destination
- verification status
Possible commitment destinations include:
- MCR
- Brain page
- decision record
- task record
- failure log
- lessons log
- project save point
- session history
- external knowledge engine
- client record
AI work should improve the system over time rather than resetting to zero when a session ends.
Agentic Work Unit Standard
Every important AI task should become an Agentic Work Unit.
A mature Agentic Work Unit should include:
Request:
Request Source:
Current User Instruction:
Classification:
Originating Brain:
Assigned Brain:
Assigned AI Employee:
Agent Necessity Outcome:
Agent Pattern:
Model Or Capability Route:
Authority Level:
Action Autonomy Level:
Input Payload:
Required Context:
External Knowledge Required:
Source Material:
Tool Permission Level:
Risk Level:
Task Instruction:
Output Format:
Validation Rule:
Independent Review Requirement:
Failure Threshold:
Rescue Route:
Human Review Requirement:
Handoff Destination:
Business Outcome:
Event Log Requirement:
Knowledge Commitment Requirement:
Learning Or Kaizen Capture:
Default MWMS AI Workflow Pattern
The default MWMS AI workflow is:
Input Capture
↓
Input Cleaning
↓
Context Selection
↓
Classification
↓
Brain Ownership
↓
Task Creation
↓
Agent Necessity Test
↓
Automation Or Agent Pattern Selection
↓
AI Employee Assignment
↓
Model Or Capability Routing
↓
Tool Permission Check
↓
Action Autonomy Check
↓
Processing
↓
Parallel Specialist Work Where Justified
↓
Synthesis Where Required
↓
Validation
↓
Independent Review Where Required
↓
Decision
↓
Approval Where Required
↓
Execution Where Authorized
↓
Outcome Verification
↓
Routing
↓
Logging
↓
Reporting
↓
Knowledge Commitment
↓
Kaizen Review
AI Employee Role Card Requirement
Every formal AI Employee should have a role card containing:
Employee Name:
Owning Brain:
Authority Level:
Purpose:
Primary Responsibilities:
Non Responsibilities:
Input Types:
Required Context:
System Instructions:
Variable Task Input:
Output Types:
Output Standard:
Approved Tools:
Approved Capabilities:
Forbidden Tools Or Actions:
Model Or Capability Requirements:
Workflow Position:
Agent Pattern:
Action Autonomy Level:
Handoff Destinations:
Escalation Rules:
Validation Rules:
Failure Threshold:
Rescue Route:
Success Metrics:
Failure Modes:
Human Review Requirement:
Logging Requirement:
Persistent Operation Status:
Schedule Or Trigger:
Shutdown Method:
Security Requirements:
Knowledge Commitment Requirement:
Related Standards:
Change Log:
No AI Employee should perform serious work without defined identity, context, permissions, output rules, failure handling and escalation boundaries.
Tool Permission Rule
AI Employees may only use approved:
- tools
- APIs
- files
- databases
- browser actions
- communication channels
- publishing routes
- deployment routes
- remote command channels
- client systems
- reusable capabilities
Tool permission must be:
- role specific
- task specific
- risk appropriate
- revocable
- logged
- reviewable
Security And Client Boundary
AI Employees must not:
- cross client data boundaries
- expose credentials
- reveal system prompts
- use unapproved external tools
- store sensitive data without authority
- send data to unapproved models
- bypass approval
- create hidden persistence
- create uncontrolled background processes
- execute destructive actions from ambiguous messages
- use private personal data for unnecessary lead profiling
Observability Standard
Every serious AI workflow should record enough information to answer:
- what was requested
- who requested it
- what Brain owned it
- which AI Employee acted
- why an agent was used
- what model was used
- what context was used
- what tools were used
- what capability versions were used
- what evidence was retrieved
- what decisions were made
- what action level applied
- what validation occurred
- what failed
- what was retried
- what rescue route was used
- what outcome occurred
- what it cost
- what was committed to memory or MCR
- whether human approval occurred
Minimum Observability Metadata
Task ID:
Session ID:
User Or Caller ID:
Client ID:
Brain:
AI Employee:
Agent Necessity Outcome:
Agent Pattern:
Model:
Model Version:
Prompt Or Instruction Version:
Context Sources:
Tool Calls:
Capability Versions:
Permission Level:
Action Autonomy Level:
Start Time:
End Time:
Runtime:
Token Or Usage Cost:
Validation Result:
Review Result:
Approval Event:
Failure Code:
Retry Count:
Rescue Route:
Outcome:
Knowledge Commitment:
Shutdown Or Completion Status:
Cost Control Standard
Every AI system should define:
- expected usage
- expected model cost
- expected tool cost
- maximum cost per task
- maximum cost per period
- alert threshold
- fallback model
- stop condition
- human approval threshold
Cost must be connected to business value.
Low cost does not justify low quality.
High capability does not justify uncontrolled spend.
Failure Handling
Failure may include:
- missing context
- invalid input
- tool failure
- permission failure
- model failure
- timeout
- malformed output
- unsupported claim
- memory contamination
- wrong classification
- wrong Brain routing
- duplicate action
- client boundary violation
- action execution failure
- business outcome failure
Failure Response Options
- retry within limit
- use fallback model
- use deterministic fallback
- transfer to specialist
- transfer to rescue agent
- request clarification
- request human approval
- stop
- roll back
- revoke tool access
- disable persistent worker
- create failure record
Repeated Failure Rule
After two materially identical failures, do not merely repeat the same route.
Change:
- model
- context
- tool
- specialist
- method
- validation
- assumptions
or stop.
Human Review
Human review remains required when:
- the outcome is high risk
- evidence is weak
- financial authority is involved
- legal or compliance exposure exists
- customer communication creates commitment
- a meeting is being booked outside approved boundaries
- a task changes project priority
- a system state is being changed
- deployment is involved
- a client deliverable is final
- an external message may damage trust
- the agent requests authority it does not hold
Independent Review
Independent review should be used when:
- the producing model may share the same blind spot
- architecture matters
- financial decisions matter
- compliance matters
- security matters
- important claims require challenge
- high value client work is produced
The reviewer should not merely rewrite the output.
It should assess:
- evidence
- assumptions
- omissions
- permissions
- risk
- outcome fit
- action boundary
- failure exposure
Kaizen Requirement
The MWMS Kaizen Loop is:
Reflect → Reduce → Refine → Record
AI workflows should capture:
- what created friction
- what failed
- what context was missing
- what tool permission was unclear
- what output was rejected
- what caused rework
- what repeated correction occurred
- what rule needs refinement
- whether an agent was justified
- whether deterministic automation would have been better
- whether hierarchy was justified
- whether a specialist helped
- whether a checker caught risk
- whether routing was cost efficient
- whether persistent execution added value
- whether rescue happened early enough
- whether the correct capability was selected
- whether the autonomy level was appropriate
- whether the business outcome was actually achieved
MWMS AI Agent Operations Checklist
Before deployment, confirm:
Agent Necessity
- deterministic automation was considered
- AI processing step was considered
- agent use is justified
- hierarchy is justified
- business benefit is clear
Role
- owner is defined
- purpose is defined
- responsibilities are defined
- non responsibilities are defined
- authority is defined
Context
- required context is identified
- stale context is excluded
- client context is isolated
- memory type is known
- durable state is defined
Tools And Capabilities
- tools are approved
- capabilities are contracted
- permissions are recorded
- versions are recorded
- destructive actions are restricted
- capability changes are controlled
Action Autonomy
- autonomy level is assigned
- approval rule is defined
- bounded execution limits are defined
- revocation exists
- emergency shutdown exists
Testing
- tool unit tests passed
- input contract tests passed
- tool selection tests passed
- action execution tests passed
- end to end outcome tests passed
- failure tests passed
- duplicate tests passed
- permission tests passed
Validation
- output validation is defined
- source checks are defined
- schema checks are defined
- independent review is defined where required
- human review is defined where required
Operations
- trigger is approved
- schedule is approved
- cost boundary is defined
- logging is active
- monitoring is active
- failure threshold is defined
- rescue route is defined
- stop condition exists
Outcome
- business outcome is defined
- destination is defined
- outcome verification is defined
- knowledge commitment is defined
- Kaizen feedback is defined
Drift Protection
The system must prevent:
- using agents where automation is enough
- creating hierarchy for appearance
- one general agent controlling everything
- tool access without operational permission
- reusing capabilities without version control
- platform specific implementation becoming Canon architecture
- model brand becoming employee identity
- shared channels bypassing classification
- low confidence classification forcing action
- voice transcription being treated as authority
- email sending without an approved autonomy level
- meeting creation without timezone and availability checks
- task creation outside the approved Project Manager Brain source of truth
- RAG uploads entering production without approval
- retrieved content being treated as final authority
- internal and external evidence being mixed without traceability
- successful tool calls being mistaken for successful outcomes
- persistent agents operating without monitoring
- autonomous actions operating without revocation
- agents continuing after repeated failure
- hidden costs
- client data leakage
- knowledge failing to commit at session end
Architectural Intent
The MWMS AI Agent Operations Core exists to turn AI capability into governed business operations.
Its architectural role is to connect:
- business purpose
- Brain ownership
- agent necessity
- AI Employee role
- context
- model
- memory
- tools
- reusable capabilities
- task
- validation
- approval
- execution
- outcome
- observability
- failure recovery
- knowledge commitment
- learning
The long term objective is not to create the largest possible agent network.
The objective is to create the smallest reliable governed workforce capable of producing strong business outcomes.
The system should be:
- modular
- tool agnostic
- model agnostic
- source grounded
- observable
- permissioned
- testable
- recoverable
- revocable
- client safe
- cost visible
- outcome driven
Final Standard
Before any AI agent becomes operational, MWMS must know:
- why an agent is required
- why automation is insufficient
- who owns it
- what role it performs
- what context it uses
- what model or capability route it uses
- what tools it may call
- what capabilities are approved
- what action level it holds
- how each tool was tested
- how the complete system was tested
- how its work is validated
- what happens when it fails
- how it is stopped
- what business outcome it must achieve
- where its learning is committed
Use deterministic automation first where it is sufficient.
Use a single AI Employee first where an agent is required.
Add specialists only where role separation improves quality, permission control or risk.
Build reusable capabilities once and govern their reuse.
Classify shared channel requests before specialist action.
Test tools independently before testing the complete agent.
Treat external action as a permissioned autonomy decision.
Keep role, context, tools, memory, model and operational state separate.
Verify the business outcome, not only the tool execution.
Do not allow persistent agents to operate without monitoring and shutdown.
Synthesize multi agent output.
Check important output before trust.
That is the operating core of MWMS AI work.
Change Log
Version: v1.4
Date: 2026-06-27
Author: HeadOffice
Change:
Updated the MWMS AI Agent Operations Core using the strongest non duplicative intelligence from the AI Automations By Jack AI Agents block.
Preserved the existing v1.3 operating foundation covering:
- role based AI Employees
- context selection
- orchestration
- task structure
- tool permissions
- validation
- outcomes
- agent hierarchy
- model routing
- independent review
- deterministic rescue
- persistent agents
- background workers
- scheduled routines
- remote command channels
- external knowledge engines
- session closure
- Agentic Work Units
- role cards
- observability
- cost control
- failure handling
- shutdown
- Kaizen learning
Added:
- Agent Necessity Test
- Automation Before Agent Rule
- deterministic automation outcome
- automation with AI processing step outcome
- deterministic router outcome
- formal agent justification burden
- Reusable Tool Capability Library Principle
- Reusable Capability Contract
- capability reuse and version change rules
- Tool Execution Versus Outcome Rule
- Classification Before Specialist Action
- Hierarchical Classification Rule
- Unknown Classification Rule
- Agent Decision Contract
- Five Level Agent Testing Model
- adversarial and failure test requirements
- five Action Autonomy Levels
- default external action rule
- email action rule
- calendar action rule
- Project Manager Brain task creation rule
- voice input confidence and confirmation rule
- Model Interchangeability Rule
- stronger RAG ingestion and retrieval boundaries
- stronger internal, external, memory and inference separation
- expanded Agentic Work Unit fields
- expanded role card fields
- expanded observability metadata
- expanded deployment checklist
- expanded drift protection
- updated final standard
Purpose of update:
To ensure MWMS chooses agents only when agents are genuinely required, reuses approved operational capabilities safely, tests agents at tool, selection, execution and business outcome levels, classifies shared channel requests before specialist action, and controls external actions through explicit autonomy levels.
Version: v1.3
Date: 2026-06-17
Author: HeadOffice
Change:
Expanded the MWMS AI Agent Operations Core into a complete operating foundation for session bound, multi agent, persistent, remotely triggered, independently reviewed and failure resilient AI Employees.
Added persistent cloud agents, background workers, scheduled routines, remote command channels, role based model routing, independent review, deterministic rescue routing, external knowledge systems, formal session closure, skill composed capabilities, observability, cost control and controlled shutdown.
Purpose of update:
To evolve the MWMS AI Agent Operations Core from an agentic workflow and hierarchy standard into a complete operating foundation for session bound, multi agent, persistent, remotely triggered, independently reviewed and failure resilient AI Employees across MWMS and future AIBS client systems.
Version: v1.2
Date: 2026-05-31
Author: HeadOffice
Change:
Added formal Agent Hierarchy Design covering Master Agents, Router Agents, Research Agents, Extraction Agents, Structure Agents, Specialist Agents, Synthesis Agents, Checking Agents, Handoff Agents and sub workflows.
Added Single Agent First Rule, complexity cost governance, hierarchy patterns, input and output contracts and structured sub workflow contracts.
Purpose of update:
To evolve the core into an AI workforce architecture standard capable of governing single agent, specialist agent, master agent, synthesis agent, checking agent and sub workflow patterns.
Version: v1.1
Date: 2026-05-31
Author: HeadOffice
Change:
Added AI Operating System alignment, Context as an operating foundation, richer Agentic Work Unit fields, context selection, tool permission checks, system message and user input separation, RAG requirements, role card expansion, security preflight and Kaizen requirements.
Purpose of update:
To evolve the core into a stronger operating foundation for AI Employees, Brain workflows, AIOS systems, permissioned tool use and future AIBS delivery.
Version: v1.0
Date: Initial Draft
Author: HeadOffice
Change:
Created the MWMS AI Agent Operations Core as the foundational operating standard for role based AI Employees, Agentic Work Units, orchestration, task workflows, validation, handoffs, reporting and business outcomes.
Change Impact Declaration
This v1.4 update expands the MWMS AI Agent Operations Core from mature agent workforce governance into a stronger decision and capability operating standard covering agent necessity, automation first design, reusable capabilities, hierarchical classification, five level testing, bounded action autonomy and verified business outcomes.
Pages Created
None
Pages Updated
MWMS AI Agent Operations Core v1.3 To v1.4
Pages Deprecated
None
Registries Requiring Update
MWMS AI Agent Operations Core Page Registry
MWMS AI Agent Operations Core Copy Map
HeadOffice Page Registry If Version Tracking Is Maintained
MWMS Architecture Registry If Version Tracking Is Maintained
Canon Version Update Required
No
Change Log Entry Required
Yes
Strategic Absorption Result
MWMS gains a stronger operating core that governs not only how AI Employees work, but whether an agent should exist at all, how approved capabilities are reused, how specialist actions are selected, how external actions are bounded, how agents are tested, and how successful execution is separated from successful business outcomes.
END OF FULL FILE OUTPUT