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AIPCH02 — Deployable

“Independently Deployable AI Capability via Self-Service”


What AIPCH02 is really asserting

AIPCH02 is not asserting that:

“An AI Product can be deployed to production.”

It is asserting that:

The AIPRO (or their domain) can define, compose, publish, and evolve the AI Product end-to-end using intent-driven self-service — without requiring engineering expertise or intervention.

This is about who holds agency over AI capability creation, not whether deployment pipelines exist.


The Essence (HDIP + AIPS Interpretation)

An AI Product is deployable if and only if:

  1. The domain actor (AIPRO) can move the product through its lifecycle
  2. All interaction is expressed in intent, behavior, and constraints
  3. Technical realization is fully abstracted and compiled by the platform

If creating or changing the AI Product requires:

  • writing code
  • designing pipelines
  • selecting models
  • configuring infrastructure
  • orchestrating tools

then AIPCH02 is not met, even if deployment is automated.


Positive Criteria — When AIPCH02 is met

AIPCH02 is met when all of the following are true:


1. Lifecycle is self-service from the domain perspective

The AIPRO (or delegate) can:

  • declare intent (what the AI should do)
  • define behavior and expected outcomes
  • specify constraints (risk, policy, safety)
  • compose capability (including other AI/Data Products)
  • trigger publish or update
  • observe status and outcomes

All without:

  • writing code
  • designing models
  • configuring pipelines
  • selecting infrastructure

This aligns with HDIP:

Declare → Compose → Publish → Observe → Evolve


2. Inputs are business-native, not technical

Valid inputs include:

  • decision intent (e.g., “detect fraud”, “approve credit”)
  • behavioral expectations (e.g., explainability, latency)
  • risk posture (R0–R4 implications)
  • policy selections (compliance, safety, usage boundaries)
  • references to other AI/Data Products (composition)
  • usage context and consumer expectations

Invalid inputs include:

  • model types (e.g., “use XGBoost”, “use GPT-4”)
  • pipeline definitions
  • feature engineering logic
  • orchestration graphs
  • infrastructure parameters

Those belong to the platform.


3. Platform acts as a Product Factory Intelligence

The platform:

  • selects models and techniques
  • orchestrates workflows and agents
  • provisions infrastructure
  • binds policies and governance
  • configures observability and evaluation

The domain never needs to know how this is done.

This is not tooling — this is:

an automated technology organization


4. No engineering translation layer exists

The AIPRO:

  • does not rely on engineers to “implement” intent
  • does not hand off requirements for translation
  • does not wait for technical backlog prioritization

There is no human compiler between intent and execution.


Negative Criteria — When AIPCH02 is not met

AIPCH02 is not met if any of the following are true:


❌ Deployment requires engineering involvement

Examples:

  • “Raise a ticket for model deployment”
  • “Ask ML team to retrain”
  • “Engineering must approve pipeline changes”

Even if fast, this breaks deployability.


❌ Self-service interfaces expose technical constructs

Examples:

  • UI asks users to:
    • choose model types
    • configure hyperparameters
    • design pipelines or DAGs
    • select compute resources

This is engineering disguised as UI, not self-service.


❌ AI Product lifecycle is controlled by engineers

Examples:

  • engineers define model behavior
  • retraining controlled by ML teams
  • deployment tied to code releases

This is centralized AI delivery, not productization.


❌ Composition requires engineering orchestration

Examples:

  • combining AI Products requires writing code
  • chaining models requires pipelines
  • agent orchestration requires scripts

This violates composability as a product capability.


Edge Cases (Important Guidance for Agents)


Case 1: “Low-code AI builder with model selection options”

Not met

Rationale:

  • user is still making technical decisions
  • abstraction is incomplete
  • domain must think like an ML engineer

Case 2: “Prompt-based systems without full lifecycle control”

⚠️ Partial

Rationale:

  • intent expression exists
  • but lacks:
    • governance binding
    • lifecycle control
    • deployment ownership

Case 3: “Intent-driven composition + one-click publish”

Met

Rationale:

  • domain expresses intent
  • platform compiles and deploys
  • no engineering dependency

This is the target state.


Case 4: “Human-in-the-loop deployment approval required”

⚠️ Context-dependent

Rationale:

  • acceptable for high-risk (R3/R4) scenarios
  • but:
    • should not require engineering intervention
    • should be governance-driven, not technical dependency

Evidence Signals an Agent Should Look For


Authoritative evidence:

  • intent-driven AI Product onboarding interface
  • one-click publish/update capability
  • no domain-authored code repositories

Supporting evidence:

  • automatic generation of AIPDS and deployment artifacts
  • platform-driven model and pipeline selection
  • runtime provisioning without manual intervention

Red flags:

  • Git repositories owned by domain teams
  • deployment instructions involving engineers
  • UI fields referencing models, pipelines, or infrastructure

How an Agent Should Decide

Decision rule (simplified):

If the domain must think like an ML engineer or depend on engineering teams to create, modify, or deploy the AI Product, AIPCH02 is not met.


Why AIPCH02 Is Non-Negotiable

Without AIPCH02:

  • AI creation does not scale
  • engineering becomes the bottleneck
  • democratization becomes superficial
  • innovation is constrained by capacity

AIPCH02 ensures that:

AI capability creation scales through platform intelligence, not human engineering effort


Canonical Statement (for AIPS)

AIPCH02 is satisfied only when an AI Product can be defined, composed, deployed, and managed end-to-end by the domain using intent-driven self-service, with all technical and infrastructural complexity fully abstracted and compiled by the platform.