Enterprise AI POC guide

The five decisions an enterprise AI POC must answer

A successful POC should reduce uncertainty before an enterprise commits to production. It must answer five practical questions.

• Does the solution solve the actual business problem?
• Does it work with our data, workflows and systems?
• Is the output accurate, safe and dependable enough?
• Can it operate economically at enterprise scale?
• Can this vendor take the solution from POC to production?

1. Start with a valuable business problem

Do not begin with “Where can we use generative AI?” Begin with “Which measurable business outcome is constrained by a problem AI may be able to solve?”

A weak brief says: “Build an AI assistant for customer service.” A qualified brief says: “Determine whether an AI assistant can reduce average email-handling time from 12 minutes to 8 minutes while maintaining at least 90% factual accuracy and preventing disclosure of restricted customer information.”

• Identify the user and the workflow.
• Record the current baseline and target.
• Confirm accessible data and an accountable business owner.
• Define the consequence worth solving and a credible route to production.

2. Test only the assumptions that could invalidate the investment

A POC should not attempt to prove the entire future platform. It should test a small number of assumptions that could stop the investment.

• Is the required data available, permitted and usable?
• Can the AI complete the important tasks?
• Is quality acceptable to subject-matter experts?
• Can the system integrate with the enterprise environment?
• Can the principal risks be controlled?
• Is expected value higher than operating cost?

3. Define success before vendors start building

Every vendor should receive the same business problem, representative dataset, test scenarios, constraints, scoring method and success thresholds. This prevents vendors from selecting only the examples on which their product performs well.

Connect technical measures to business outcomes. Relevance, hallucination rate and latency matter only when they connect to handling time, resolution, adoption, risk or cost per successful task.

4. Test in real enterprise conditions

Use representative and approved enterprise conditions. Start with synthetic or anonymized data where possible. If sensitive information is required, obtain legal and information-security approval before ingestion.

• Realistic user queries, edge cases and failure scenarios
• Existing identity, access and compliance requirements
• At least one important integration
• Expected transaction volumes and actual user roles
• Adversarial inputs, unauthorized requests and unsupported tasks

5. Evaluate the whole solution

Enterprise buyers are not buying an LLM benchmark. They are buying an operational capability. Score the entire system.

• Business value: the workflow or economic outcome improves.
• Functional fit: critical use cases can be completed.
• AI quality: outputs are correct, relevant, grounded and useful.
• Data readiness: required information is accessible and reliable.
• Integration: the solution works with the enterprise environment.
• Security and governance: access remains protected and activity is auditable.
• User experience: target users can use and trust the solution.
• Operations and scalability: failures are visible and performance remains acceptable at volume.
• Economics: cost per successful outcome is viable.
• Vendor capability: the supplier can own a production implementation.

6. End with a decision

“Interesting results” is not a valid POC outcome. Finish with one of four evidence-based decisions.

• Go: evidence supports production implementation.
• Conditional go: value is proven, but named gaps must be closed.
• Pivot: the problem is valid, but the approach or vendor must change.
• Stop: value, feasibility, economics or risk does not justify continuation.

Qualify an AI vendor in 30 minutes

Thirty minutes is enough to decide whether a vendor deserves deeper evaluation. It is not enough for final procurement, security approval or contract award. Use the meeting as a structured qualification gate and send a one-page brief in advance.

• 0-3 minutes, problem playback: ask the vendor to explain the problem, users and measurable target.
• 3-8 minutes, live scenario: test one realistic task and inspect input, evidence, output, confidence, review and actions.
• 8-12 minutes, failure test: introduce missing, contradictory, outdated, ambiguous or unauthorized information.
• 12-17 minutes, architecture and data: inspect processing, storage, model dependencies, residency, access, isolation, portability and auditability.
• 17-21 minutes, evaluation evidence: request accuracy, groundedness, acceptance, latency, cost and failure metrics.
• 21-25 minutes, production readiness: examine comparable deployments, monitoring, change controls, service levels and exportability.
• 25-28 minutes, commercial reality: estimate POC, implementation, licence, usage, infrastructure, integration and support costs.
• 28-30 minutes, evidence-based close: agree on missing evidence, scope, responsibilities, timeline, acceptance criteria and stop conditions.

The 30-minute vendor scorecard

Score every category from 0 to 5, then apply the weights. A knockout condition stops progression regardless of the total.

• Business-problem fit, 15%: knockout if the vendor cannot articulate the required outcome.
• Live task performance, 20%: knockout if the core scenario cannot be demonstrated.
• AI quality and evidence, 15%: knockout for unverifiable claims or no evaluation data.
• Data and security, 15%: knockout for an unacceptable use, residency or access model.
• Integration and architecture, 10%: knockout if a critical integration is unavailable.
• Production maturity, 10%: knockout if monitoring, auditability or an operating model is absent.
• Economics, 10%: knockout if expected-volume cost cannot be estimated.
• Vendor capability, 5%: knockout without credible implementation ownership.
• 80-100: invite to a controlled POC. 65-79: proceed only after specific evidence. Below 65: do not progress.

Steps 1-4: frame, select, map and bound the POC

Write the hypothesis in one sentence: If the target users use the AI capability for the workflow, the business KPI will improve from the baseline to the target while meeting quality, cost and risk thresholds.

• Name the executive sponsor, business owner, process owner, technical owner and risk owner.
• Select a high-value but bounded use case using value, frequency, feasibility, data readiness, measurability, risk, adoption and production path.
• Map the current trigger, inputs, decisions, systems, outputs, exceptions, approvals, time, cost and errors.
• Limit scope to one user group, one workflow, three to five scenarios, one or two data sources, one integration and a limited cohort.
• Keep enterprise-wide rollout, unlimited autonomous actions and nonessential integrations out of scope.

Steps 5-6: define metrics and hard gates

Use four layers of metrics. Give every metric a baseline, target, minimum threshold, measurement method, data source and owner.

• Business outcomes: handling time, cost, conversion, revenue, time to insight, rework or compliance incidents.
• User outcomes: task completion, adoption, acceptance, time saved, escalation and correction effort.
• AI quality: factual accuracy, groundedness, relevance, completeness, citation correctness, tool accuracy, abstention and safety.
• Operational economics: latency, availability, errors, throughput, tokens, review cost and cost per successful task.
• Hard gates: restricted-data protection, residency, identity, audit logging, human approval, deletion terms, maximum latency and maximum cost.

Steps 7-8: create the golden dataset and baseline

Build a hidden evaluation dataset from representative business cases, then run the same cases through the current process before testing the vendor solution.

• Include common, complex, rare, ambiguous, incomplete, contradictory, multilingual and policy-sensitive cases.
• Include adversarial requests and requests the system should refuse.
• Record the expected result, acceptable variations, evidence, prohibited behaviour and severity of failure.
• Measure current completion time, quality, error, labour, cost, satisfaction, escalation and business outcome.
• Where useful, compare the human process, existing software and an unassisted foundation model.

Steps 9-11: choose a minimum architecture and build a thin vertical slice

Select the simplest architecture capable of proving the hypothesis. Do not introduce autonomous or multi-agent complexity when retrieval or deterministic workflow automation will solve the problem.

• Choose among prompt-only generation, RAG, structured extraction, tool use, workflow copilot, human-approved agent or fine-tuning.
• For RAG, test approved sources, access-aware indexing, retrieval, context assembly, generation, citations, safety, review and logging separately.
• Create a data-flow and threat model for input, enterprise data, retrieval, model providers, tools, outputs, logs, reviewers and subprocessors.
• Test prompt injection, disclosure, insecure output, excessive agency, misinformation, unauthorized tools and cross-tenant leakage.
• Build one end-to-end workflow with authentic interaction, representative data, one integration, guardrails, logging, escalation and evaluation instrumentation.

Steps 12-13: evaluate systematically with real users

Combine deterministic tests, calibrated model-based evaluation, subject-matter-expert review, adversarial testing and a controlled user pilot. No single method is sufficient.

• Use deterministic evaluation for exact facts, fields, classification, calculations, citations, policies and tool calls.
• Use model-based evaluation for relevance, coherence, completeness, tone and groundedness, calibrated against human reviewers.
• Use SMEs for domain correctness, omissions, regulatory interpretation and material business decisions.
• Run adversarial tests for injection, extraction, policy bypass, hallucination, unauthorized actions and cost amplification.
• Pilot with 10-30 representative users for 2-4 weeks, with feedback and weekly failure reviews against the baseline.

Steps 14-16: prove economics, vendor capability and the production decision

Calculate annual cost across licence, model usage, infrastructure, integration, monitoring, human review, support and change management. Divide total operating cost by correctly completed tasks, not by total requests.

• Stress-test volume, longer context, model pricing, peak load, languages, fallback, human review and re-evaluation.
• Assess company viability, delivery capability, comparable deployments, named team, domain expertise, regional support and references.
• Inspect data ownership, training use, subprocessors, security duties, liability, price protection, exit support and portability.
• Produce a decision pack with hypothesis, baseline, scope, architecture, dataset, results, failures, user feedback, risk, cost, vendor assessment and roadmap.
• Preserve raw results. An executive summary without traceable evidence is insufficient.

Recommended final POC scorecard

Proceed only when the total is at least 80/100 and every hard gate has passed.

• Demonstrated business outcome, 25%
• Functional and workflow fit, 15%
• AI quality and reliability, 15%
• Security, privacy and governance, 15%
• Architecture and integration, 10%
• User experience and adoption, 5%
• Scalability and operations, 5%
• Production economics, 5%
• Vendor capability and viability, 5%
• Also require no open critical security risk, confirmed business value, viable production economics and a funded production owner.

Why enterprise AI POCs fail

Most failures are not caused by a lack of model capability. They are caused by weak problem definition, biased testing, missing controls or no path to adoption and production.

• Starting with technology instead of a business problem
• Using vendor-selected examples or defining success after results appear
• Testing only output quality with unrealistically clean data
• Ignoring access permissions, integrations, business impact or human-review cost
• Comparing models instead of complete operating solutions
• Allowing weighted scores to conceal security failures
• Skipping adversarial tests and real users
• Treating POC architecture as automatically production-ready
• Continuing without an accountable owner or funded business case

The central principle

A successful AI POC does not prove that AI can generate an impressive answer. It proves, with representative enterprise evidence, that a specific solution can improve a valuable workflow at an acceptable level of quality, risk, cost and operational complexity, and that the organization and vendor can carry it into production.