Engineering-Led Robotics Services
Move from a Working Prototype to Repeatable Manufacturing
Yana helps robotics teams identify and close the engineering, manufacturing, test, supplier and quality gaps between a functional prototype and a controlled production process.
We support manufacturing-readiness assessment, BOM and process review, pilot-build planning, supplier coordination, validation and production-readiness decision-making.
The product performs its intended function, but the design has not yet been evaluated systematically for manufacturing, assembly, testing and service.
Components, revisions, tolerances or interfaces continue to change, making supplier quotation and process planning unreliable.
The team intends to build a limited batch to validate the design, suppliers, manufacturing process, testing and quality controls.
The pilot should have explicit objectives rather than merely producing more prototypes.
The project needs a structured view of open gaps, responsible parties, validation requirements and decision criteria before serial production.
Review whether the released design information and component structure are sufficiently stable for meaningful manufacturing and supplier decisions.
This is a manufacturing-readiness review, not complete product redesign.
Define how the product should be assembled, configured, calibrated, tested, handled and released.
Translate product requirements into production checks that distinguish an acceptable unit from a defective or incorrectly configured unit.
Not every test required for legal compliance is included automatically.
Plan a controlled limited build that can expose design, process, supplier, test and quality-system weaknesses before production scale increases.
Align the selected suppliers around the same design baseline, manufacturing requirements, validation objectives and change-control process.
This does not replace formal supplier qualification where deeper capability evidence is required.
Document open gaps, owners, priorities, evidence requirements and the decisions that must be completed before the next production stage.
A structured assessment of the current product, BOM, process, testing, supplier and quality maturity.
A prioritised list of unresolved design, process, test, supply, documentation and quality issues.
The proposed pilot scope, configuration, quantity, responsibilities, measurement plan and exit criteria.
The performance, interface, manufacturing, calibration and quality evidence to be collected during the pilot stage.
The released product baseline, approved changes and unresolved deviations that affect the build.
Required actions, owners, dependencies, priorities and evidence for moving to the next manufacturing stage.
Exact deliverables depend on the design maturity, product category, supplier model, pilot scope and agreed engagement.
NASA defines Technology Readiness Levels as a framework for assessing technology maturity. Treating a high technology-maturity level as proof of manufacturing readiness would therefore be an overreach; production readiness requires separate evidence covering design, process, test, supply and quality control. This is an inference from NASA’s stated scope for TRLs. NASA
| Area | Working prototype | Production-ready baseline |
|---|---|---|
| Design | Optimised primarily for function | Reviewed for manufacturability, assembly and service |
| BOM | Flexible, experimental or changing | Released, sourced and lifecycle-reviewed |
| Components | Prototype quantities or convenience purchases | Approved suppliers, specifications and alternatives |
| Process | Engineer-led or ad hoc assembly | Documented and repeatable manufacturing sequence |
| Tooling | General or temporary tools | Defined fixtures, tools and process controls |
| Testing | Engineering bench verification | Production test, limits, calibration and traceability |
| Software | Manually loaded or informally versioned | Controlled release, configuration and provisioning |
| Quality | Final inspection or engineer judgement | Critical characteristics, process checks and issue controls |
| Documentation | Files distributed informally | Released baseline with change control |
| Supply chain | Spot buying | Quoted sources, lead times and dependency visibility |
| Outcome | One or several functioning units | Repeatable product and process evidence |
Design
Prototype: optimised for function → Production: reviewed for manufacturability, assembly and service
BOM
Prototype: flexible or changing → Production: released, sourced and lifecycle-reviewed
Process
Prototype: engineer-led or ad hoc → Production: documented and repeatable
Testing
Prototype: engineering bench verification → Production: production test, limits, calibration and traceability
Quality
Prototype: final inspection or judgement → Production: critical characteristics and issue controls
Outcome
Prototype: one or several functioning units → Production: repeatable product and process evidence
Production readiness is not a label attached to the prototype. It is a decision supported by released design information, defined processes, qualified inputs, production tests and controlled evidence.
Identify which hardware, software, components, drawings and specifications produced the current working prototype.
Key output: Current configuration and evidence baseline
Assess drawings, tolerances, materials, interfaces, component availability, revision control and known engineering gaps.
Key output: Design and BOM readiness findings
Develop the intended assembly, calibration, inspection, test, configuration and release flow.
Key output: Proposed production-process and test model
Release the pilot configuration, align suppliers, prepare tooling and tests, and collect structured build data.
Key output: Pilot build record and issue register
Compare pilot outcomes against the agreed product, process, quality and production-readiness criteria.
Key output: Validation findings and unresolved risks
Determine whether the project should proceed, proceed conditionally, repeat the pilot or return to engineering work.
Key output: Production-readiness recommendation and action plan
ISO 10007:2017 provides configuration-management guidance across the product and service lifecycle. ISO
A pilot build should test the complete production model—not only whether the assembled units function.
Can multiple units meet the same performance and acceptance requirements?
Can the defined assembly, calibration and test sequence be followed consistently?
Can suppliers deliver the correct revision, documentation and material quality?
Can the production checks detect relevant faults and record usable evidence?
Can issues, deviations, rework and engineering changes be tracked without losing configuration integrity?
There is no universal successful-yield threshold. The threshold depends on product maturity, failure severity and programme objectives.
Design features that are difficult to manufacture or assemble
Tolerances that are incomplete, inconsistent or unnecessarily restrictive
Prototype components with weak availability or no lifecycle plan
Assembly methods dependent on individual engineer knowledge
Insufficient calibration or production-test coverage
Uncontrolled hardware, firmware and BOM revisions
Supplier capability assumed without process evidence
No clear pilot acceptance or production-release criteria
| Partner model | Appropriate when | Main risk |
|---|---|---|
| Contract manufacturer | Buyer owns a sufficiently mature design | Supplier may lack robotics-specific test or integration capability |
| ODM | Supplier contributes material product design | Ownership, IP and platform-control boundaries may be unclear |
| Specialist subsystem manufacturer | One major module requires dedicated expertise | Integration remains with the buyer |
| System integrator | Complete application or cell must be delivered | Product manufacturing and integration responsibilities may overlap |
| Robot OEM | Buyer needs an existing robot platform | Customisation and architecture control may be limited |
| Multiple specialist suppliers | Architecture is modular and buyer-controlled | Coordination and system validation remain with the buyer |
Contract manufacturer
When buyer owns a mature design. Risk: may lack robotics-specific test or integration capability.
ODM
When supplier contributes material product design. Risk: ownership and IP boundaries may be unclear.
Robot OEM
When buyer needs an existing robot platform. Risk: customisation and architecture control may be limited.
System integrator
When a complete application or cell must be delivered. Risk: manufacturing and integration responsibilities may overlap.
Manufacturing-partner selection should follow the product-ownership and responsibility model, not precede it.
A supplier’s quality-management certification can indicate that a management system exists. It does not establish that the supplier has mastered the specific robot design, processes, calibration, testing or critical components.
ISO 9001:2015 remains the published requirements standard at the time of this page, with a 2024 amendment. A revised edition is expected in September 2026. ISO
ISO 9001 certification does not mean the supplier is production-ready for a specific robot design.
The target market, product category, intended use and responsibility model should be established before production tooling and documentation are locked.
The production process must preserve the approved product configuration and collect the evidence required by the responsible legal manufacturer and qualified conformity specialists.
For industrial robots, ISO 10218-1:2025 addresses the industrial robot as partly completed machinery, while ISO 10218-2:2025 addresses industrial robot applications and robot cells. The distinction clarifies whether the project is producing a robot product, an integrated cell or both. ISO
For EU-bound machinery, Regulation (EU) 2023/1230 generally applies from 20 January 2027; expected market-entry date therefore affects compliance planning. EUR-Lex
Yana may help identify production-documentation and evidence gaps. Formal legal, regulatory and certification determinations remain with the responsible legal manufacturer and qualified specialists.
| Activity | Typical responsible party |
|---|---|
| Product architecture | Buyer or product-design partner |
| Detailed engineering changes | Buyer or authorised engineering partner |
| Manufacturing-readiness assessment | Yana, within agreed scope |
| Manufacturing-process execution | Selected manufacturer |
| Supplier qualification | Yana and buyer, where separately scoped |
| Pilot-build coordination | Defined among Yana, buyer and supplier |
| Final engineering approval | Buyer’s authorised engineering team |
| Product certification | Legal manufacturer and qualified bodies |
| Production acceptance | Buyer under agreed acceptance criteria |
| Import responsibilities | Buyer or designated importer |
Manufacturing-readiness assessment
Yana, within agreed scope
Manufacturing-process execution
Selected manufacturer
Final engineering approval
Buyer’s authorised engineering team
Product certification
Legal manufacturer and qualified bodies
Yana’s role is to structure manufacturing-readiness evidence, coordinate defined workstreams and make unresolved gaps visible. Yana does not automatically become the product designer, manufacturer, certification body or final engineering sign-off authority.
The review can begin with incomplete information, but the confidence of the readiness decision depends on the quality and control of the available design and prototype evidence.
Technical guides and sourcing intelligence
A detailed technical guide to design maturity, BOM control, process development, testing, pilots and production ramp.
Technical guideHow to evaluate the engineering, manufacturing, quality and lifecycle capability of shortlisted suppliers.
Technical guideHow to investigate whether a factory’s real processes, equipment and controls match the required product.
Technical guideHow quality planning, traceability, nonconformance control and change management support reliable robotics production.
A prototype is ready for manufacturing planning when its architecture and key requirements are stable enough to define the product baseline, processes, tests, suppliers and acceptance criteria. It does not need to be perfect, but material uncertainties must be visible.
Not automatically. A working prototype demonstrates functional feasibility. Production readiness also requires controlled design information, repeatable processes, production tests, stable components, supplier readiness and change control.
Not by default. Yana may identify design-for-manufacturing and production-readiness gaps. Detailed product redesign remains with the buyer or an authorised design partner unless separately scoped.
Yes, when supplier sourcing is included or connected through the Robotics Supplier Sourcing service. The required manufacturer model must first be clear.
A pilot build is a controlled limited production run used to test the released product configuration, manufacturing process, tooling, suppliers, testing and quality controls before scaling.
There is no universal quantity. The number should be sufficient to expose the important product, process and supplier risks while remaining economical to change. It depends on product complexity and pilot objectives.
No. A sample can demonstrate product potential, but it does not prove process repeatability, capacity, change control, traceability or sustained quality.
Yes, production follow-up and quality support may continue through the Robotics Production Quality Support service under a separately defined scope.
No formal universal certification is implied. Yana can produce a structured readiness assessment and recommendation against the agreed project criteria.
Share the current prototype, design status, BOM, expected volume, destination market and the production decision you are preparing to make. Yana can help assess manufacturing readiness, identify open gaps and structure the pilot and validation process.
Provide enough context to assess manufacturing readiness and define the next production step. No account creation is required.