Task and consequence
Name what decision or output the system produces, and what happens when it is wrong.
AI-enabled software built around a defined task.
AI is not the default. We compare the task against rules, search, and conventional automation before introducing probabilistic behavior.
A model earns its place only after the task, its inputs, and the cost of a wrong answer are understood.
Name what decision or output the system produces, and what happens when it is wrong.
Define exactly which sources the model may read, and what it must never see.
Decide who reviews output, when the system should refuse to answer, and how correction happens.
Build a set of difficult, ambiguous, and adversarial cases before trusting a convincing demo.
The model's authority should stay proportionate to the risk. Broader autonomy is a separate, harder-won decision.

The model only ever has the smallest set of permissions and actions the task genuinely requires. Broader autonomy is earned by evidence, not assumed.
Validation, schemas, and rule-based checks sit around the model, catching failure before it reaches a user or system.
When the task needs current or authoritative facts, output is grounded in retrieved, attributable sources rather than model memory alone.
Every AI-enabled path has a defined non-AI or human alternative for low confidence or out-of-scope input.
The stack follows the requirement, not the other way round. These are the categories this engagement typically has to decide.
The exact responsibility depends on the task and agreed scope. None of the following should be assumed automatically.
Every AI decision trades something specific for something else. The useful choice is the one whose reason is understood.
A model earns its place only where the task cannot be reduced to a describable set of conditions.
Autonomy should expand only as evaluated evidence justifies it, not by default.
A general model with strong guardrails and grounding is often more defensible than an undertested fine-tune.
Some tasks tolerate an immediate answer; others need a queued, reviewable step before anything reaches a user.
Deliverables should make the path from task to AI-enabled behavior visible and testable.
The defined task, data boundaries, and the evidence used to decide AI was justified.
The test set, acceptance criteria, and the known failure modes the system currently has.
The AI behavior connected into the actual product surface, not a standalone demo.
Monitoring, escalation paths, and change ownership documented for whoever runs the system after release.
The starting engagement should reduce the uncertainty that matters before committing to a build.
A bounded exercise to confirm whether AI is justified before committing to a build.
A scoped, project-shaped engagement to design, build, and evaluate one AI-enabled capability.
Release to a limited surface or audience first, expanding only as evaluation evidence supports it.
Ongoing ownership of monitoring, evaluation data, and provider or model changes after launch.
AI-Enabled Software & Automation is the right starting point when probabilistic behavior is the defining risk. A different service may own the wider need.
Choose this when AI is one feature inside a larger requirement-specific system.
Choose this when introducing AI is part of a broader change to an existing product.
Choose this when the defining need is model hosting, inference infrastructure, or observability rather than the AI behavior itself.
Choose this when continued evaluation and model change are part of an active roadmap responsibility.
Technical delivery and architecture details. Key decisions regarding code quality, integrations, and handoff rituals.
No. Rules, search, integrations, and conventional automation may be more predictable when the task can be specified clearly.