Robot Demo and POC Responsibilities: A Partner Delivery Checklist

A robot demo should answer a narrow capability question. A proof of concept (POC) should answer whether a defined workflow can meet agreed acceptance conditions in a representative environment. Neither should begin with equipment shipment and a vague request to "show what it can do." Partners using Warpify's partner delivery path need a written charter, owners, evidence and closeout decision before work starts.

Separate demo, POC, pilot and production

Use the current workflow-first assessment to keep the stage tied to a buyer decision. A successful demo does not prove site fit, and a short POC does not prove long-term service performance.

Set the entry gate

Do not schedule the activity until the parties have approved:

• customer problem, workflow and decision to be made;
• scope, location, dates, participants and allowed operating window;
• robot, payload, software and configuration identity;
• site, network, power, access, safety and integration readiness;
• data, privacy, image, logo and confidentiality rules;
• success, failure, stop and change criteria;
• manual fallback, incident response and equipment custody;
• evidence owner, review meeting and closeout deliverables.

The deployment readiness checklist can supply the site gate. NIST's robotics research program stresses the need for test methods and metrics when emerging technologies are selected, integrated and evaluated in dynamic manufacturing environments.

Assign responsibilities by workstream

Use named people in the actual charter. "Partner" and "customer" are categories, not accountable owners.

Engage current process owners

NIST MEP guidance recommends engaging the people who own the current process, naming an internal champion and beginning with a bounded implementation. Include the operators who know irregular work, maintenance and facilities teams who manage dependencies, IT/security owners, and the manager who can make the go/revise/stop decision.

The internal champion should not become the default owner for every missing responsibility. Keep technical support, site work, operational response and business acceptance separate.

Test the application, not the robot in isolation

OSHA's system boundary shows why a robot application review must include controllers, sensors, end effectors and surrounding equipment rather than the robot alone. A material-handling test should use the intended payload interface and transfer method. An inspection test should use the required sensor payload, read geometry, data path and reviewer workflow.

Run normal, boundary and failure scenarios. Examples include demand peaks, blocked paths, payload not ready, access denial, communication loss, invalid read, low battery, user absence and service escalation. Stop conditions should be pre-agreed and visible to the test conductor.

Use an acceptance matrix

For every criterion record definition, denominator, test method, data source, owner, threshold or decision rule, exclusions, observation window and result status. Avoid a single "success rate" that mixes navigation, handoff, data and business outcomes. Label unresolved evidence as not yet verified and retain failed scenarios.

Control changes

If the route, payload, robot, software, network, integration, workflow, operating window or acceptance rule changes, record the change and decide which tests must be repeated. Do not silently tune the test until it passes and report only the final configuration.

Close with one decision

The closeout should state go, revise and retest, stop, or defer for a named dependency. It should include the tested configuration, evidence, exceptions, open risks, production gaps, cost implications and next authority. Remove equipment, close temporary access, transfer data and return the site to the agreed state.

Sources and scope

This guide combines the cited primary sources with an editorial decision framework. It does not quote a market price, promise a result, replace a site assessment, or provide legal, financial, clinical, cybersecurity or safety advice.

• How to Make Your First Robot Integration a Success — National Institute of Standards and Technology, MEP guest guidance
• Performance of Emerging Technologies for Robotics — National Institute of Standards and Technology
• Industrial Robot Systems and Industrial Robot System Safety — U.S. Occupational Safety and Health Administration
• ISO 44001:2017 Collaborative business relationship management systems — International Organization for Standardization

Take the next step

If you can define the customer workflow, site, responsibilities and acceptance boundary, bring the opportunity into a partner delivery discussion: Discuss a qualified robot opportunity.