MWMS Brain Connector Architecture

Document Type: Specification
Status: Active
Authority: HeadOffice
Applies To: All cross Brain communication, routing, task handoff, signal visibility, and result return logic across MWMS
Parent: HeadOffice
Version: v1.1
Last Reviewed: 2026-03-31


Purpose

MWMS Brain Connector Architecture exists to define how Brains communicate inside the MWMS ecosystem without relying on informal conversation, hidden assumptions, or untracked handoffs.

Its role is to make cross Brain interaction structurally clear, operationally visible, and governable as the ecosystem expands.

This page exists to define:

• how Brains pass requests to one another
• how signal flow moves upward and downward through the system
• how task schema logic supports routing and execution
• how escalation is triggered and controlled
• how outcomes are returned to the originating Brain
• how HeadOffice maintains visibility across the full chain

The goal is not conversational convenience.

The goal is governed system communication.


Scope

This specification applies to:

• HeadOffice coordination across all MWMS Brains
• Brain to Brain request creation and routing
• Supabase backed task and request lineage
• WordPress workspace visibility where relevant
• signal movement between operational, governance, and oversight layers
• escalation paths involving HeadOffice, SIT, Finance, and other authority systems
• result handoff from execution layer back to originating system context
• future connector expansion across new Brains, employees, and automation layers

This page does not replace Brain Canons.

This page defines the connector architecture that sits between them.


Definition

Core Principle

Brains do not communicate through informal narrative.

Brains communicate through structured connector logic.

Every cross Brain interaction must be:

• declared
• routed
• stored
• visible
• lineage safe
• status driven
• outcome based
• reviewable by HeadOffice

A Brain may originate a request.
A Brain may receive a request.
A Brain may process a request.
A Brain may return a result.

But the connector layer governs how that movement happens.


Architectural Position

The Brain Connector Architecture sits between:

HeadOffice governance

Brain request creation

routing and review logic

task and execution systems

result return and status closure

HeadOffice visibility and escalation control

It exists as the controlled transport layer of MWMS.


Connector Objective

The connector layer must ensure that:

• no Brain handoff disappears into chat like ambiguity
• no task loses context when passed between systems
• no result returns without traceable origin
• no escalation occurs outside a governed chain
• no Brain exceeds its authority because routing was unclear
• no system health view depends on manual memory alone


Architecture Overview

1. Connector Layers

The MWMS connector model contains six layers:


Layer 1 Origin Layer

This is where a request, signal, or trigger begins.

Possible origins include:

• HeadOffice directive
• Research insight
• Affiliate opportunity evaluation
• Ads performance anomaly
• Experimentation requirement
• Finance risk trigger
• SIT integrity event
• manual human instruction
• automated system trigger

The origin layer must create a declared starting point.


Layer 2 Request Layer

The origin becomes a structured Brain Request.

This request captures:

• source Brain
• destination Brain
• request type
• purpose
• priority
• lineage fields
• routing status
• review ownership
• escalation conditions
• expected outcome

This is the formal handoff object.


Layer 3 Routing Layer

The routing layer determines:

• which Brain owns the next action
• whether the request is valid inside that Brain’s authority
• whether the request needs review before activation
• whether supporting Brains must be declared
• whether escalation controls must be attached at creation

This is the control point that prevents Brain drift.


Layer 4 Task Execution Layer

Once routed, the request may create one or more executable tasks.

Examples:

• research task
• offer review task
• experiment design task
• financial check task
• enforcement review task
• dashboard update task
• implementation task

The request remains the parent object.

Tasks are execution children.


Layer 5 Result Layer

Execution outputs return to the request chain as structured results.

Examples:

• recommendation
• verdict
• experiment definition
• routed escalation
• blocked decision
• approved progression
• rejected progression
• system warning
• evidence package

Results must attach to the original request lineage.


Layer 6 Visibility Governance Layer

HeadOffice must be able to see:

• request creation
• routing state
• current owner
• escalation flags
• linked tasks
• result status
• final outcome
• unresolved blockers

This ensures system wide observability.


Task Schema Logic

Core Relationship Model

The connector architecture uses a parent child logic:

Brain Request = governing parent object
Task = executable child object
Result = return object linked to request and task lineage
Signal = event, metric, or status input that may trigger request creation
Escalation = governed branch of the same lineage, not a separate disconnected process

This means:

• a request may create zero, one, or many tasks
• a task must always belong to a request or a controlled system trigger
• a result must map back to the originating request
• an escalation must preserve the same request lineage
• closure must happen at request level, not only task level


Minimum Connector Fields

Every Brain Request should support at minimum:

• request_id
• request_type
• origin_brain
• destination_brain
• primary_brain
• supporting_brains
• source_origin
• priority
• status
• outcome_type
• created_at
• updated_at
• created_by
• review_owner
• escalation_owner
• intake_id where relevant
• offer_id where relevant
• experiment_id where relevant
• related_task_ids
• parent_request_id where relevant
• result_summary
• escalation_reason where relevant
• closure_reason where relevant


Execution Task Fields

Every execution task should support at minimum:

• task_id
• parent_request_id
• task_type
• assigned_brain
• assigned_employee_or_system
• task_status
• execution_notes
• evidence_links where relevant
• started_at
• completed_at
• result_id where relevant
• escalation_flag


Schema Logic Rule

Request lineage must always be stronger than task convenience.

If a task is easy to create but breaks request traceability, the architecture is wrong.


Request Flow

Standard Request Flow

Origin Signal or Instruction

Brain Request Created

Review Routing

Destination Brain Accepted

Task Creation if required

Work Performed

Result Returned

Outcome Recorded

Request Closed or Escalated

HeadOffice Visibility Maintained Throughout


Request Flow Rules

• every cross Brain action begins with a Brain Request
• every request must declare origin and destination
• every request must have a visible status
• every request must end in an outcome state
• requests must not vanish after work is performed
• routing must occur before execution guidance
• multi Brain work must declare one primary Brain


Standard Request Status Flow

Minimum statuses:

• new
• under_review
• routed
• in_progress
• responded
• escalated
• blocked
• closed

Brains may use narrower internal stages, but must not break the core connector status model.


Signal Flow

Purpose of Signal Flow

Signal flow defines how MWMS detects what needs action.

Signals are not the same as requests.

Signals are inputs.

Requests are structured responses to those inputs.


Signal Sources

Signals may originate from:

• dashboard KPI movement
• experiment outcomes
• financial thresholds
• anomaly detection
• evidence updates
• compliance violations
• stage progression attempts
• manual executive review
• research density shifts
• campaign deterioration
• task failure clusters
• unresolved blockers


Signal Direction Types

Upward Signal Flow

Operational Brains send meaningful signals upward to HeadOffice.

Examples:

• Ads Brain flags performance instability
• Experimentation Brain flags invalid test conditions
• Finance Brain flags capital exposure
• SIT flags structural integrity failure


Downward Signal Flow

HeadOffice or authority Brains send controlled signals downward.

Examples:

• freeze progression
• request re review
• enforce escalation
• block launch
• require evidence
• require financial signoff


Lateral Signal Flow

One Brain may generate a signal relevant to another Brain, but the transfer must still go through connector logic.

Example:

Research Brain detects emerging demand signal
→ connector creates structured request
→ Affiliate Brain evaluates opportunity

Lateral still means governed.


Signal Rule

Signals may trigger requests.

Signals do not replace requests.


Escalation Flow

Purpose

Escalation exists to preserve governance when normal Brain autonomy is insufficient.

Escalation is not failure.

It is controlled authority transfer.


Escalation Triggers

Escalation should be triggered when:

• request crosses Brain authority boundaries
• financial risk exceeds allowed thresholds
• governance breach detected
• data integrity compromised
• unresolved blocker prevents closure
• conflicting Brain conclusions require arbitration
• stage progression attempted without required evidence
• system health indicators show instability
• compliance exposure detected
• HeadOffice review explicitly required


Standard Escalation Chain

Request issue

Escalation Flag Raised

Escalation Owner Assigned

Review Authority Activated

Decision Returned

Outcome Attached to Same Lineage

Request Continues, Closes, or Blocks


Escalation Owners

Depending on issue type:

• HeadOffice
• SIT Brain
• Finance Brain
• governed Brain authority
• human executive layer


Escalation Rules

• escalation remains attached to original lineage
• escalation must not create disconnected side process
• escalation reason must be visible
• escalation owner must be explicit
• escalation outcome must be recorded
• escalated requests must not return to silent state


Result Handoff

Purpose

Result handoff defines how completed work returns to the originating context.

Work is not complete when a task ends.

Work is complete when the result is returned, interpreted, and recorded correctly.


Standard Result Handoff Flow

Task Completion

Result Object Created

Result Returned to Parent Request

Originating Brain Receives Outcome

Next action determined

Request closed, escalated, or routed onward


Result Types

• recommendation delivered
• decision recorded
• approved for next stage
• blocked pending evidence
• routed onward
• escalated
• monitoring only
• failed execution
• integrity breach detected


Result Handoff Rules

• every result must map to request lineage
• results must be visible to originating Brain
• HeadOffice retains visibility for cross Brain requests
• ambiguous completion messages are invalid
• done is not an acceptable governed outcome
• every result must state what happened and what happens next


Handoff Integrity Rule

A result without next step clarity is structurally weak.

A result without lineage is structurally unsafe.

A result without visibility is operationally incomplete.


Connector Governance Rules

Rule 1 Routing Before Execution
No cross Brain execution begins before routing is declared.

Rule 2 Primary Brain Must Be Visible
If multiple Brains are involved, one Brain must be declared primary.

Rule 3 Request Lineage Must Be Preserved
Offer, experiment, intake, and parent request linkages must remain visible.

Rule 4 Tasks Are Subordinate To Requests
Task convenience must not override request governance.

Rule 5 Signals Trigger Action
Signals initiate the chain, structured requests govern the work.

Rule 6 Escalation Remains Inside Lineage
Escalation is a governed branch of the same chain.

Rule 7 Result Return Is Mandatory
Cross Brain work is incomplete until outcome is returned.

Rule 8 HeadOffice Visibility Is Required
HeadOffice must see request health and closure state.

Rule 9 Connector Logic Must Be Expandable
Architecture must support future Brains and automation.

Rule 10 Informal Cross Brain Communication Is Non Canonical
If not traceable through request lineage, it is not valid precedent.


Practical Interpretation

In MWMS operation:

Research Brain does not casually pass an idea to Affiliate Brain.

Affiliate Brain does not silently ask Ads Brain for creative direction.

Finance Brain does not appear only at the end of risk.

SIT does not operate as detached alarm logic.

HeadOffice does not rely on memory to understand cross Brain state.

Instead:

• structured request created
• routing determines ownership
• tasks created where needed
• signals remain visible
• escalation controlled
• results return through same chain
• HeadOffice can inspect full path

That is the correct connector precedent.


Outcome

MWMS Brain Connector Architecture creates the structural transport layer for MWMS.

It provides:

• controlled cross Brain communication
• stable request lineage
• governable signal movement
• escalation discipline
• clean result return logic
• strong HeadOffice visibility
• foundation for dashboards and automation

Without this layer, MWMS becomes conversational.

With this layer, MWMS becomes operational.


Change Log

Version v1.1
Date 2026-03-31
Authority HeadOffice

Change:

Title updated to remove dash character in accordance with MWMS Page Naming Standard clarification.

Naming rule reinforced:

Cross Brain pages begin with MWMS.

Single Brain pages begin with Brain name.

No dash characters permitted in page titles.