Industrial robot systems for UK manufacturers
Complete robot cells. Engineered around production.
Six-axis, SCARA, delta and palletising robot systems—with the tooling, controls, vision, guarding and integration needed to put them to work.
- Application-first robot selection
- Complete tooling and controls
- Installed and commissioned
Robot selection
The right architecture starts with the task.
You do not need to choose the robot first. We review the product, path, rate, available space and connected equipment, then define the most suitable complete cell.
Six-axis robots
Six-axis robots combine a wide working envelope with full tool orientation, making them a strong choice for complex handling paths, machine access and applications that demand movement around fixtures or equipment.
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SCARA robots
SCARA robots are optimised for rapid horizontal movement with a vertical insertion axis, making them well suited to repeatable pick-and-place, assembly, dispensing and inspection operations in compact work areas.
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Delta robots
Parallel and delta robots are designed for rapid, repeated movement over a working area. Combined with controlled product flow and machine vision, they can sort, orient and place products at high speed.
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Palletising robots
Robotic palletising brings repeatable product handling to the end of a line. The complete cell must coordinate product infeed, orientation, gripping, layer patterns, pallet supply, guarding and completed-load removal.
Explore this robot typeComplete cell engineering
The robot is one part of the system.
A productive cell depends on how every interface is engineered. Oxford Industrial Automation coordinates the elements around the arm so there is one clear route from concept to handover.
Robot selection
Architecture, payload, reach, motion, mounting, environment and performance.
End-of-arm tooling
Vacuum, mechanical or custom tooling with services and grip verification.
Controls
Robot, PLC, HMI, machine interfaces, recipes, diagnostics and production data.
Vision and sensing
Position, orientation, inspection, conveyor tracking and process confirmation.
Guarding and safety
Risk-led access control, interlocks, stops, safety functions and recovery.
Integration
Build, programming, product trials, installation, commissioning and training.
How we deliver
From the current process to a working robot cell.
A defined engineering sequence keeps the product, performance and interfaces visible throughout the project.
Understand the production task
Products, rate, current process, formats, site constraints and operator requirements.
Engineer the complete cell
Robot, tooling, product presentation, layout, sensing, controls and safety strategy.
Build, program and prove
Integrate the equipment, develop the sequence and trial representative products and formats.
Install and commission
Connect the cell to production equipment, verify operation and optimise the live process.
Hand over to your team
Complete acceptance, training, backups, documentation and support planning.
Applications
Automation for repetitive, demanding production tasks.
Each solution is shaped around what must happen to the product and how the finished operation connects to the wider line.
Material handling
Load, unload, transfer, orient and move components or products between processes.
Explore material handlingRobot applicationPick and place
Fast placement, conveyor tracking, product orientation and packing-line loading.
Explore pick and placeRobot applicationMachine tending
Serve CNC machines, presses, moulding machines and production equipment.
Explore machine tendingRobot applicationRobotic packaging
Pick, group, case-pack and move products through flexible packaging lines.
Explore robotic packagingRobot applicationRobotic assembly
Place, insert, fasten, dispense and verify repeatable component operations.
Explore robotic assemblyRobot applicationPalletising
Stack boxes, bags, bottles, containers and other packaged products.
Explore palletising systemsQuick comparison
Four robot types. Different strengths.
Use this as a first filter only. The complete payload, working envelope, cycle and tooling must be verified for the real process.
| Robot type | Motion strength | Typical applications | Key integration question |
|---|---|---|---|
| Six-axis | Flexible 3D path and orientation | Machine tending, handling, assembly and process tasks | Can every point be reached with the required tool pose? |
| SCARA | Fast planar motion and vertical insertion | Pick and place, assembly, inspection and dispensing | Is the task mainly horizontal with a vertical approach? |
| Delta / parallel | Rapid overhead picking | Vision sorting, conveyor tracking and packing | Can product flow and vision sustain the target rate? |
| Palletising | Efficient long-reach layer building | Boxes, bags, bottles, containers and loads | Do gripper, top layer and every pallet position fit the envelope? |
Planning resources
Answer the commercial and technical questions before buying the arm.
Use these customer guides to compare integration routes, define the complete scope and build a realistic automation case.
Frequently asked questions
Industrial robot system FAQs
Start with the common answers below or browse the complete robot system question centre.
Which type of industrial robot is right for my application?
The choice depends on the product, movement, payload, reach, orientation, cycle, presentation and environment. Six-axis robots offer flexible paths; SCARA and delta architectures suit faster focused motions; palletising robots are optimised for layer building.
Is the robot arm the largest part of the project?
Not always. End-of-arm tooling, product presentation, fixtures, controls, vision, guarding, conveyors, interfaces and commissioning can determine both performance and project value.
Can Oxford Industrial Automation integrate with existing equipment?
Yes, subject to an application and interface review. Physical access, controls, safety boundaries, machine condition and production timing must all be assessed.
What payload range is available?
The wider reference portfolio shown by Oxford Industrial Automation covers approximately 3–300 kg. The correct model is selected using total tool and product mass, centre of gravity, inertia, reach and cycle.
Do you include guarding and safety controls?
Complete cell projects can include guarding, access control, safety devices, safety-related controls and validation within the agreed project scope.
What should I send for a first project review?
Send product size and weight, target output, current process video, available layout, connected equipment, formats and changeover expectations. Representative samples are useful for tooling trials.
Compare robot-cell quotations using the complete task
Two quotations for the same robot model can describe very different production systems. Compare the equipment and responsibilities that turn an arm into an accepted operating cell before comparing the total price.
Separate product presentation from robot movement
List how parts arrive, how position and orientation are established and what happens when a part is missing or unsuitable. Include trays, conveyors, feeders, fixtures and vision where required. A robot motion demonstration does not establish the rate at which acceptable parts will become available in production.
Define tooling and interfaces for every variant
Record product mass and geometry, tool mass, gripping surfaces, services and the receiving process. Show retained-machine interfaces and identify who owns each controls or safety change. Include the hardest reach and tool pose, not just a convenient pickup. A quoted payload range alone does not prove the complete application.
Price the path into production
Ask which trials, integration work, guarding assessment, site preparation, installation, training, backups and handover records are included. Define acceptance using the actual format sequence, allowed interventions and finished result. Keep exclusions and customer-supplied items alongside the price so apparent savings can be distinguished from work left to another supplier or the site team.
Continue with Robot-cell cost and scope factors · Prepare a robot-cell specification · Integration and commissioning.
Read the industrial robot application decision guide to identify the process constraint before selecting an arm or cell architecture.