Your organization models context implicitly.

How CMC works.

The CMC Framework measures structural coherence across six structural levers to define the operating range for automated decision systems. If the decision density of a capability exceeds structural coherence in any single lever, deployment fails.

EXPLICITPRODUCTION infrastructure(machine-readable)L5DynamicL4AI-Compatible← CATEGORY BOUNDARY →PARTIALPILOT infrastructure(documented, not formal)L3ConnectedL2StructuredIMPLICITPROTOTYPE infrastructure(undocumented)L1Ad-hocL0Absent

AI requires explicit ontology: entities, relationships, constraints in machine-readable form. Organizations run on implicit ontology: undocumented expertise, relationships understood but not formalised.

The gap between these isn't a spectrum. It's a category boundary.

Below the line: knowledge exists in conversations, experience, tribal memory. Above the line: knowledge exists in schemas, APIs, queryable structures.

EXPLICIT (L4–L5) means production infrastructure. The system enforces constraints. AI queries return valid results without human verification. This is “it works in production.”

PARTIAL (L2–L3) means pilot infrastructure. Documented, queryable, but unreliable. AI gets answers, often wrong. This is “works in the demo.”

IMPLICIT (L0–L1) means prototype infrastructure. In heads, emails, or unstructured files. AI cannot access it programmatically. This is “works in the pitch deck.”

AI cannot process what's below the line. Not “struggles with”. Cannot. There's no gradient between “in Maria's head” and “in a queryable schema.”

Gap ≥ 2 = the structure doesn't exist. Deployment is blocked.

This isn't novel theory. It's established computer science: automated reasoning requires explicit formal structures. The value isn't the insight. It's that most organizations and their consultants don't know it applies to them.

Feasibility Condition

Per dimension:

Cn ≥ Required Cn

Deployment feasibility:

min(Cn − Required Cn) ≥ 0

Capacity (C) is measured per dimension per organisation. Required capacity is determined by the Autonomy Class of the capability being deployed. If any single dimension falls below its required level, deployment is structurally blocked. No dimension substitutes for another.

T0T1T2T3T4T5Decision DensityStructural Coherence
Structural Demand (met / unmet)
Structural Coherence (Org)

Your Operating Range

Each bar represents a decision density tier — from simple assistive automation to full system-level autonomy. The higher the tier, the more structural coherence is required.

The dashed line is your structural coherence — the weakest of six structural levers.

Capabilities below the threshold are within your operating range. Capabilities above it require structural investment before deployment — regardless of vendor quality or team ambition.

What determines that threshold? Six structural levers.

CMC measures stabilisation capacity across six structural dimensions. Each dimension answers one question about your infrastructure. Each is scored C0–C5. Integer levels only. If criteria for a level aren't fully met, the score is the level below.

M
Maintenance
I
Integration
S
Structure
A
Accessibility
C
Capture
F
Formality
L0
L1
L2
L3
L4
L5

A typical mid-market organization. Four dimensions below the category boundary. AI deployment: blocked.

The Six Dimensions

F

Formality

Is context explicit or undocumented?

+

from Knowledge Management (Polanyi, Nonaka & Takeuchi)

When Maria's out, we're guessing.

M
I
S
A
C
F

Level Progression:

L0:
Absent: All expertise undocumented
L1:
Ad-hoc: Some docs exist, outdated/scattered
L2:
Structured: Documentation practice exists
L3:
Connected: Docs are current and findable
L4:
AI-Compatible: Docs are structured and queryable
L5:
Dynamic: Docs generate from operations
C

Capture

How does context enter systems?

+

from Business Process Management (Hammer, Davenport)

That decision was made in a hallway conversation last year.

M
I
S
A
C
F

Level Progression:

L0:
Absent: No systematic capture
L1:
Ad-hoc: Manual entry when remembered
L2:
Structured: Forms and templates exist
L3:
Connected: Capture integrated into workflows
L4:
AI-Compatible: Structured capture with validation
L5:
Dynamic: Auto-capture from activity streams
S

Structure

Is context organized for retrieval?

+

from Information Architecture (DAMA-DMBOK, Rosenfeld & Morville)

The information is in there somewhere.

M
I
S
A
C
F

Level Progression:

L0:
Absent: No organization scheme
L1:
Ad-hoc: Folder hierarchies, inconsistent naming
L2:
Structured: Consistent taxonomy applied
L3:
Connected: Cross-references and linking
L4:
AI-Compatible: Queryable schemas with relationships
L5:
Dynamic: Self-organizing knowledge graphs
A

Accessibility

Can AI reach the context?

+

from Enterprise Architecture (TOGAF, Zachman)

You need to ask IT for a report, and that takes two weeks.

M
I
S
A
C
F

Level Progression:

L0:
Absent: No programmatic access
L1:
Ad-hoc: Manual exports available
L2:
Structured: Some APIs exist
L3:
Connected: Comprehensive API coverage
L4:
AI-Compatible: APIs designed for AI consumption
L5:
Dynamic: Real-time streaming interfaces
M

Maintenance

Does context stay current?

+

from Data Governance (DAMA, DataOps)

That documentation is from 2019.

M
I
S
A
C
F

Level Progression:

L0:
Absent: No update process
L1:
Ad-hoc: Updates when someone remembers
L2:
Structured: Scheduled review cycles
L3:
Connected: Ownership and accountability assigned
L4:
AI-Compatible: Automated freshness monitoring
L5:
Dynamic: Continuous sync with source systems
I

Integration

Do systems share context?

+

from Systems Integration (Hohpe, Enterprise Integration Patterns)

Our CRM and ERP don't talk to each other.

M
I
S
A
C
F

Level Progression:

L0:
Absent: Isolated systems
L1:
Ad-hoc: Manual copy-paste between systems
L2:
Structured: Batch file transfers
L3:
Connected: Point-to-point integrations
L4:
AI-Compatible: Unified data layer / event bus
L5:
Dynamic: Real-time federated context mesh

Why Sequence Matters

You cannot sustainably exceed your dependency by more than one level.

Formality L1 means Capture maxes at L2. Capture L2 means Structure maxes at L3. This isn't a suggestion. It's structural. Investing in Integration L4 while Accessibility is L1 is wasted spend.

Formality → Capture → Structure → Maintenance

                         ↓

                     Accessibility → Integration

Each lever cannot sustainably exceed its dependency by more than one level.

Build sequence: always bottom-up.

This is why “just deploy AI” fails. It's roofing without foundations.

Named Failure Patterns

Five named failure patterns account for the majority of AI deployment failures: Islands (high Structure, low Integration), Amnesia (high Capture, low Maintenance), Locked Vault (high Formality, low Accessibility), Hero Dependency (low Formality across the board), and Baseline Low (all dimensions below C2). Each has a dimension signature that CMC diagnostics detect before procurement.

These are recognition aids. You should be able to identify your organization in one of them within 10 seconds.

Islands

"Our CRM is great. Our ERP is great. Getting them to share data is a six-month project."

Structure ≥ 3 AND Integration ≤ 1

S:
I:
Details

Amnesia

"We document everything. Nobody trusts the documentation."

Capture ≥ 3 AND Maintenance ≤ 1

C:
M:
Details

Locked Vault

"It's all in SharePoint somewhere. Good luck finding it."

Formality ≥ 3 AND Accessibility ≤ 1

F:
A:
Details

Hero Dependency

"When Maria's out, we're guessing."

Formality ≤ 1 AND average ≤ 1.5 (strict formality-driven bottleneck)

F:
Details

Baseline Low

"Every pilot works in a sandbox. None survive production."

All dimensions ≤ 2 AND average < 2

F:
C:
S:
Details

Patterns derived from deployment failure analysis across research literature. Diagnostic confirms which pattern applies and identifies the build sequence to resolve it.

Last updated: February 2026Data current as of: February 2026

Frequently Asked Questions

What is the CMC Framework?

The CMC (Context Modelling Capability) Framework scores infrastructure feasibility for AI deployment across six dimensions: Formality, Capture, Structure, Accessibility, Maintenance, and Integration. Each dimension is scored 0-5, and gaps between what an AI capability requires and what an organization has determine deployment feasibility.

How does CMC predict AI deployment outcomes?

CMC compares an organization's infrastructure levels against the requirements of specific AI capabilities. Gaps of 2+ levels in any dimension indicate structural blocking — the organization lacks fundamental infrastructure that takes 12-24 months to build. This predicts deployment failure before procurement, not after.

What are the six CMC dimensions?

Formality (how documented are processes), Capture (how knowledge is recorded), Structure (how standardized is data), Accessibility (how retrievable is information), Maintenance (how current is data), and Integration (how connected are systems). These follow two dependency branches from Formality: F → C → S → M and F → A → I. Each dimension cannot sustainably exceed its dependency by more than one level.

How many AI capabilities does the CMC Framework cover?

The CMC Framework maps 730 AI capabilities across 7 industries and 64 business functions. Each capability has infrastructure requirements scored across all 6 dimensions, creating 18,360 gap scenarios for feasibility analysis.

How to Cite This Analysis

Stone, J. (2025). "CMC Framework: How to Assess AI Deployment Feasibility." CMC - Context Modelling Capability. https://contextcapability.com/methodology

Researchers: Contact contact@contextcapability.com for dataset access and methodology documentation.

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Built on applied ontology: the computational foundation AI depends on. Methodology: Lean transformation. Applied ontology. FMEA process structure.