New product teams
You need to test a robot concept before approving a full development program.
A useful robot prototype is not a cosmetic mock-up and not an unfinished production unit. It is a controlled experiment designed to validate the workflow, mobility, payload, interaction, integrations and failure recovery before a larger investment.
You need to test a robot concept before approving a full development program.
You need a functional demonstrator tied to operational acceptance criteria rather than a one-off exhibition piece.
You need a mobile platform, sensor stack or manipulation workflow that supports further software development.
You need to validate a new payload, enclosure, interface or environment on a proven platform.
Choose a small number of high-risk hypotheses: traction on the real floor, docking reliability, payload stability, sensor visibility, user interaction or system integration. Trying to perfect every feature in version one delays learning.
Adapting a proven base is usually faster when mobility requirements fit. A new chassis is justified when footprint, load, terrain, kinematics or compliance constraints cannot be met responsibly.
Define measurable tests before assembly: route completion, stopping distance, runtime, docking attempts, payload temperature, network recovery or operator task time as relevant.
Prototype enclosures, wiring, fixtures and software shortcuts should be marked. This prevents experimental solutions from silently becoming production assumptions.
The exact documents and tests depend on the agreed project. This matrix shows the level of decision clarity we aim to create.
| Prototype stage | Primary question | Typical output |
|---|---|---|
| Feasibility rig | Can the critical mechanism or sensor concept work? | Bench setup, measurements and risk conclusion |
| Integrated prototype | Can subsystems perform the end-to-end workflow? | Functional unit, software build and issue log |
| Field pilot unit | Will it work with real users and conditions? | Site data, acceptance results and recovery procedures |
| Production-intent unit | Can the design be built and serviced repeatedly? | DFM updates, controlled BOM and release tests |
Only the deliverables listed in the signed proposal are included. This list is a planning aid, not a claim that every project receives every item.
A focused adaptation can be shorter than a ground-up platform. Timing depends on mechanism novelty, custom electronics, supplier lead times, software integrations and test access. The schedule is built after the feasibility and architecture review.
Yes. Reusing a suitable mobility, charging and control foundation can reduce cost and technical uncertainty while leaving room for custom payloads, enclosures and applications.
Software deliverables and access are defined by contract. Options may include application source, documented APIs, SDK access, ROS 2 interfaces and deployment packages, subject to third-party licenses and background IP.
That can be the goal, but a production transfer still requires DFM, component-lifecycle review, controlled drawings, repeatable software loading and a release-quality test plan.
Use this planning guide to define the project and compare proposals on the same basis.
Read the guide →Use this planning guide to define the project and compare proposals on the same basis.
Read the guide →Custom robot design and development from requirements and architecture through mechanical, electrical, software, prototype, pilot and production transfer.
Read the guide →Include the task, payload, environment, integrations, quantity, destination market and target timing. We will reply with focused clarification questions and a practical next step.