Engineering-Led Robotics Services
Maintain Visibility and Control from Pilot Build to Production
Yana helps robotics companies monitor supplier execution, coordinate inspection and testing, track nonconformities, control engineering changes and follow corrective actions during pilot builds and production.
The service is structured around the buyer’s released product configuration, acceptance criteria, production risks and decision requirements.
The product and supplier have been selected, but the pilot requires clear inspection, test, issue-management and exit criteria.
The buyer receives units or summary updates but lacks reliable evidence about process status, defects, rework, changes and unresolved risks.
Defects continue to recur, corrective actions are unclear or the supplier closes issues without demonstrating effective root-cause control.
The buyer needs structured communication, evidence collection and action tracking between its engineering team and the manufacturer in China.
Final inspection can identify some defective outputs. It cannot by itself control unstable processes, unauthorised substitutions, incorrect revisions, hidden rework, weak calibration, software-version errors or recurring root causes. Production quality must therefore connect product configuration, supplier processes, measurement, inspection, traceability, issue management and change control.
The supplier must manufacture the correct released hardware, software, BOM and specification revision.
Critical assembly, calibration and testing steps must be defined and followed.
Inspection and test results must be generated using appropriate methods, equipment and acceptance criteria.
Units, materials, software versions, test records and production changes must be connected where the programme requires it.
Defects must lead to containment, root-cause analysis, corrective action and evidence that recurrence has been addressed.
Translate product requirements and production risks into a defined quality, inspection, test and evidence plan.
Confirm that the supplier has the current design baseline, approved materials, process instructions, tooling, test systems and issue-control mechanism before the build begins.
This is not a substitute for a complete prototype-to-production review.
Review or coordinate checks for critical purchased components, materials, subassemblies and supplier-provided documentation.
Track selected production stages, process evidence, inspection results, deviations and issues while units are being manufactured.
Coordinate or review final product checks against the agreed specification, configuration and acceptance criteria.
Final inspection does not prove full process capability.
Record production issues, establish containment, track root-cause analysis and follow corrective actions through defined verification.
Track proposed component, process, software and design changes so that the buyer can evaluate and approve them before implementation where required.
Provide structured visibility into build status, defects, unresolved actions, changes, evidence gaps and decisions requiring buyer attention.
The agreed inspection, test, evidence, escalation and responsibility structure for the build or production stage.
The characteristics, methods, frequency, acceptance criteria, records and responsible parties for selected production controls.
A structured view of quantities, build stage, inspection status, issues, changes and open decisions.
A controlled record of identified defects, affected material, disposition, containment and status.
Root causes, supplier actions, owners, target dates and verification evidence.
The production baseline, approved deviations, engineering changes and affected units or lots.
The results, evidence, limitations and open issues from the scoped inspection, test or validation activities.
Material production risks, pending buyer decisions, conditions and recommended next actions.
Exact deliverables depend on the production stage, product risk, supplier capability, available evidence and agreed scope.
Identify the approved drawings, BOM, specifications, hardware revision, software version, test requirements and authorised deviations.
Key output: Released production baseline
Determine what must be checked, when it must be checked, how evidence will be recorded and who owns each acceptance decision.
Key output: Production quality and control plan
Review the production schedule, approved materials, processes, tooling, test systems, personnel readiness and unresolved pre-build risks.
Key output: Pre-production readiness status
Collect relevant evidence from incoming, in-process and final production stages and identify deviations from the agreed baseline.
Key output: Production and inspection status
Document affected material, contain the problem, establish disposition and prevent uncontrolled release or rework.
Key output: Nonconformance and containment record
Follow supplier root-cause analysis, corrective actions, engineering changes and required verification through agreed completion criteria.
Key output: Corrective-action and change status
Provide the buyer with evidence, unresolved risks, conditions and decisions needed for the next production or release stage.
Key output: Production quality report and action plan
| Dimension | Core control question |
|---|---|
| Product configuration | Is the factory building the correct released revision? |
| Components and materials | Are approved parts and suppliers being used? |
| Manufacturing process | Are required process steps and controls being followed? |
| Workmanship | Are assembly and handling requirements consistently met? |
| Test and calibration | Can the factory demonstrate that units meet the requirement? |
| Software and firmware | Are the correct versions provisioned, recorded and protected? |
| Nonconformities | Are defects contained, dispositioned and traceable? |
| Engineering changes | Are modifications evaluated and approved before use? |
| Traceability | Can affected units, lots, parts and records be identified? |
| Packaging and release | Are accepted units protected, documented and released correctly? |
Product configuration
Is the factory building the correct released revision?
Components and materials
Are approved parts and suppliers being used?
Manufacturing process
Are required process steps and controls being followed?
Test and calibration
Can the factory demonstrate that units meet the requirement?
Software and firmware
Are the correct versions provisioned, recorded and protected?
Nonconformities
Are defects contained, dispositioned and traceable?
Engineering changes
Are modifications evaluated and approved before use?
Traceability
Can affected units, lots, parts and records be identified?
| Field | Requirement |
|---|---|
| Process stage | Incoming, assembly, calibration, test, final or packaging |
| Characteristic | What is being checked |
| Classification | Critical, major, minor or project-defined severity |
| Specification | Drawing, requirement or approved limit |
| Method | Gauge, fixture, software test, visual check or document review |
| Frequency | Per unit, per lot, first piece, periodic or risk-based |
| Sample | Defined sample approach where applicable |
| Record | Required result, image, data file or sign-off |
| Responsibility | Supplier, Yana, buyer or qualified third party |
| Reaction plan | Containment and escalation when criteria are not met |
Process stage
Incoming, assembly, calibration, test, final or packaging
Characteristic
What is being checked
Method
Gauge, fixture, software test, visual check or document review
Frequency
Per unit, per lot, first piece, periodic or risk-based
Reaction plan
Containment and escalation when criteria are not met
The control plan should follow product and process risk. Not every characteristic should receive the same inspection frequency, and inspection should not replace process control where stable production is required.
Acceptance sampling can support lot-acceptance decisions when checking every unit is unnecessary or impractical. It should not be used as proof that the manufacturing process is capable, stable or free from systemic defects.
defines single, double and multiple acceptance-sampling plans for inspection by attributes. provides single sampling plans for measurable continuous characteristics under defined conditions, including a statistically controlled process.
Do not publish one universal AQL. A lot accepted under a sampling plan can still contain nonconforming units. AQL-based sampling is a decision tool, not a statement that the accepted lot contains no defects.
specifies requirements for a measurement-management system intended to support confidence in the validity and reliability of measurement results. sets competence, impartiality and consistent-operation requirements for testing and calibration laboratories. Accreditation is not automatically required for every factory test.
A recorded number is not automatically reliable evidence. Confidence depends on the method, equipment, calibration, operator, conditions, data integrity and relationship to the acceptance requirement.
Creates an unacceptable safety, legal or fundamental functional risk
Materially affects performance, reliability, use or contractual conformity
Does not materially prevent intended use but remains outside the requirement
Do not present this classification as universally applicable. Severity definitions must be agreed for the project.
The manufacturer must not decide unilaterally that a material nonconformity is acceptable where buyer or engineering approval is required.
Containment protects the immediate production flow. Corrective action changes the system that allowed the issue to occur or escape.
Robotics production may involve changes to mechanical design, materials, purchased components, PCB revisions, firmware, software, parameters, manufacturing process, tooling, test method, calibration, sub-supplier or packaging.
remains the current published guidance for configuration management and covers products and services from concept through disposal. A replacement is under development.
A supplier substitution is an engineering change when it can affect product function, reliability, safety, software, compliance or lifecycle. It should not be treated only as a purchasing decision.
Traceability depth should follow product and risk requirements.
Full serial-level traceability is not necessary for every part or project. The model should focus on information needed to isolate affected material, investigate failures, support service and control product configuration.
Do not impose universal target values. Metrics, definitions and thresholds must be established for the specific product, production stage and buyer decision.
On plan / At risk / Blocked
What has been observed or received
What is outside the agreed requirement
Who must do what and by when
What the buyer must approve or resolve
What remains uncertain after the current action
A targeted factory or process review may be included when it is necessary to understand production execution or recurring quality issues. It is not automatically included in every production-support engagement.
provides current guidance on audit principles, audit-programme management, conducting management-system audits and auditor competence. A Yana production review is not automatically a certification audit.
Production quality support should verify that manufacturing changes do not silently alter safety-rated hardware, safety software or parameters, protective functions, electrical components, structural materials, sensors, brakes, stopping behaviour, documentation, labels or warnings.
For industrial robots, addresses the industrial robot itself as partly completed machinery, while addresses integrated robot applications and robot cells. This distinction should be preserved when allocating production, integration and validation responsibility.
Yana may track production evidence and configuration gaps relevant to safety or compliance. Formal legal, certification and conformity decisions remain with the responsible legal manufacturer, integrator and qualified specialists.
| Risk | Required control |
|---|---|
| Factory builds an obsolete revision | Released baseline and revision confirmation |
| Supplier substitutes components silently | Engineering-change and approval process |
| Software version is not recorded | Provisioning and configuration traceability |
| Prototype assembly knowledge is undocumented | Controlled work instructions |
| Critical tests occur only during development | Production test and acceptance plan |
| Final inspection becomes the only quality control | Incoming and in-process controls |
| Calibration records are incomplete | Measurement-management and traceability |
| Rework changes the product without records | Approved rework method and unit history |
| Defects recur after superficial correction | Root-cause and effectiveness verification |
| AQL sampling is treated as process capability | Separate sampling from process control |
| Pilot units are not representative | Controlled pilot configuration and materials |
| Supplier closes issues without buyer evidence | Defined closure and verification criteria |
| Packaging causes transit damage | Packaging validation and shipment checks |
| Production ramp hides capacity or process instability | Stage-gated ramp and production metrics |
| Critical risks are buried in status summaries | Explicit issue, decision and risk reporting |
Obsolete revision built
Released baseline and revision confirmation
Silent component substitution
Engineering-change and approval process
Software version not recorded
Provisioning and configuration traceability
Final inspection only
Incoming and in-process controls
Recurring defects after weak correction
Root-cause and effectiveness verification
AQL treated as process capability
Separate sampling from process control
| Activity | Typical responsible party |
|---|---|
| Product and acceptance requirements | Buyer |
| Production-quality plan | Yana and buyer within scope |
| Manufacturing process execution | Supplier |
| Inspection execution | Supplier, Yana or third party as scoped |
| Engineering disposition | Buyer’s authorised engineering team |
| Nonconformance containment | Supplier |
| Corrective-action implementation | Supplier |
| Corrective-action follow-up | Yana where scoped |
| Product certification | Legal manufacturer and qualified bodies |
| Final product release | Buyer or authorised responsible party |
| Supplier warranty | Supplier |
| Import responsibilities | Buyer or designated importer |
Production-quality plan
Yana and buyer within scope
Manufacturing process execution
Supplier
Engineering disposition
Buyer’s authorised engineering team
Final product release
Buyer or authorised responsible party
Yana provides production visibility, issue coordination and evidence-based reporting within the agreed scope. Yana does not automatically operate the factory, approve engineering deviations, release products, certify conformity or guarantee supplier output.
The service can begin with incomplete quality documentation, but effective control requires clear buyer requirements and defined decision authority.
Standards may inform the evidence model. They do not all apply to every robotics project, and certification does not replace product-specific production control.
As of July 2026, remains the published quality-management requirements edition, with the replacement expected in September 2026. Edition references are maintained in a shared standards data component.
Technical guides and sourcing intelligence
How control plans, traceability, nonconformance management, corrective action and change control support reliable robotics production.
Technical guideHow to prepare the design, BOM, processes, tests and pilot evidence before production begins.
Technical guideHow to assess supplier engineering, manufacturing, quality and lifecycle capability before production commitment.
Technical guideHow to review real manufacturing processes, equipment, test systems, capacity and production controls.
It may include quality planning, production-status monitoring, inspection and test coordination, nonconformance tracking, corrective-action follow-up, change control and reporting, depending on scope.
No. Final inspection is one possible activity. Production-quality support also addresses process evidence, configuration, in-process issues, traceability, corrective action and supplier communication.
Inspection or inspection coordination may be included where the product, method, location, acceptance criteria and responsibility are clearly defined.
No. Inspection provides evidence from the defined checks and sample. It cannot guarantee that every defect has been detected or that the underlying process is capable.
Containment protects current production or customers from the immediate problem. Corrective action addresses the root cause so the issue is less likely to recur.
Yana can document and coordinate deviation requests. Final engineering approval remains with the buyer’s authorised decision-maker unless a different authority is explicitly established.
Yes. The service may support pilot inspection, issue tracking and evidence collection. Broader manufacturing-readiness planning belongs to the Robot Prototype to Production service.
Yes. The engagement may include containment follow-up, evidence review, root-cause clarification, corrective-action tracking and effectiveness verification.
No. The service improves visibility, evidence and issue control but cannot eliminate every defect, supplier failure or production risk.
The engagement may be closed, reduced to periodic review or transitioned into a defined ongoing monitoring model, depending on the buyer’s risk and needs.
Share the supplier, product, production stage, quantity, known quality issues and the decisions your team needs to make. Yana can help define the quality-control structure, monitor supplier execution, track issues and coordinate the evidence required for the next production step.
Provide enough context to define production stage, quality risks and required support. No account creation is required.