A robot integrator makes the whole cell work.
An industrial robot arm cannot create a production result on its own. The integrator defines how parts arrive, how they are gripped, where they move, how quality is confirmed, how people are protected and how the cell exchanges signals with the wider line.
Oxford Industrial Automation provides a single engineering route across robot selection, end-of-arm tooling, fixtures, PLC and HMI controls, machine vision, safeguarding, machine interfaces, build, testing and site commissioning.
Feasibility and concept
Review products, motion, rate, formats, space, utilities and the current production process.
Cell engineering
Define the robot, tooling, layout, product flow, controls, sensing and safety strategy.
Build and prove
Integrate hardware and software, then test with representative products and agreed sequences.
Install and commission
Connect to production, verify live operation, train the team and complete handover.
How to compare UK robot integrators
| Question | Why it matters | Evidence to request |
|---|---|---|
| Who owns the complete cell? | Interfaces often decide performance | One defined scope and responsibility matrix |
| How is cycle time verified? | Robot speed alone does not equal output | Sequence breakdown, trials and acceptance method |
| How are changes controlled? | Product and site assumptions affect design | Documented assumptions, exclusions and change process |
| What happens at handover? | Operators need safe, recoverable production | Training, backups, documentation and support plan |