Speed, reach and payload for automated cells.
Six-axis, SCARA, parallel and palletising robots for enclosed or safeguarded production cells requiring repeatable output and demanding duty cycles.
View industrial robotsIndustrial robot and cobot systems for UK manufacturers
Robots & cobots.Built to improve your production.
Tell us the product, task and target output. We engineer the complete automation cell around your production process—from robot selection and tooling to controls, safeguarding, installation and training.
Matched to your productComplete tooling & controlsInstalled & commissioned
20reference platforms
3–300 kgrobot payload range
One partnerconcept to handover
Robots & collaborative robotsStart with your process.
Start with your process.
We specify the right automation.
You do not need to choose the robot first. We review your product, required rate, available space, interaction with operators and upstream or downstream equipment, then define the most suitable robot or cobot cell.
Flexible automation for suitable collaborative applications.
Compact robot platforms for light handling, packaging, assembly and machine support where the complete application and risk assessment support collaborative operation.
View cobotsRobot & cobot solutionsAutomation options for
Automation options for
real production tasks.
Explore representative robot platforms by application, payload and reach. We integrate the selected platform with the equipment needed to make the cell work in production.
View all 20 options
Collaborative robot / cobot
Six-Axis Collaborative Robot
Product packaging and light assembly and injection-moulding support and machine loading/unloading.
930 mmOperating radius
5 kgPayload
0.05 mmRepeatability
Heavy-duty palletiser
160 kg Multifunctional Palletising Robot
Heavy palletising of bags, boxes and bottles and large-work-envelope material handling.
3,100 mmReach
160 kgPayload
±0.5 mmRepeatability
Parallel / delta robot
Five-Axis Fast Parallel Robot
High-speed sorting of light scattered products and horizontal gripping, flipping and vertical placement.
1,200 mmArm span
3 kgPayload
±0.1 mmRepeatability
Heavy six-axis robot
170 kg Six-Axis Automotive Robot
Machine-tool and injection-moulding loading/unloading and metal processing, bending, shearing and transfer.
3,168 mmReach
170 kgPayload
±0.2 mmRepeatability
SCARA robot
High-Precision SCARA Robot
High-speed handling and pick-and-place and visual inspection and sorting.
600 mmOperating radius
3 kgPayload
±0.02 mmRepeatability
Injection-moulding manipulator
Plastic Injection-Moulding Machine Robot
Extraction of moulded plastic components and containers, packaging items and general moulded parts.
160T–320TMachine range
5-axis CartesianAxes
Telescopic vertical + product armArm
Specialist automation routes
Find the production task you need to solve.
Use the dedicated application, engineering and sector pages to identify the evidence, tooling, controls and safety questions that shape a production-ready robot cell.
View all 21 applicationsPackaging
Robotic case packing
Load products, collations and packs into cases, trays and shelf-ready formats.
Explore case packing →3D vision
Robotic bin picking
Pick randomly presented parts from bins and totes with 3D vision and collision-aware motion.
Explore bin picking →Metal finishing
Grinding, polishing and deburring
Control contact force, paths, abrasive wear, extraction and finish quality.
Explore finishing →Project planning
Automation feasibility study
Define cycle, tooling, layout, safety, interfaces and next-step evidence before order.
Explore feasibility →Planning tool
Robot cycle-time calculator
Compare an indicative task sequence with the seconds available at the required output.
Build a cycle budget →Thame, Oxfordshire
Local robotics integration
Discuss robot and cobot projects from application review through installation and support.
Meet the Oxfordshire team →Complete cell deliveryOne project.
One project.
Every part connected.
We coordinate the robot, end-of-arm tooling, product handling, sensing, controls, machine interfaces and safeguarding so your team has one clear route from concept to production handover.
Your production
Product, rate, formats, current process, site constraints and operator requirements.
The complete cell
Robot, tooling, motion path, fixtures, vision, controls, safety and layout.
Build and test
Integration, programming, dry testing, product trials and issue closure before deployment.
Production handover
Installation, commissioning, acceptance, training and support planning.
Show us the process you want to automate.
Send product details, photos or video, required output and available space. We will define the next technical step.
Industrial robot or cobot: compare complete cells for the same task
Start with the product and required operation, then compare the equipment that makes the whole cell work. Arm payload and purchase price do not describe the complete production result.
Use one common application brief
Keep the item range, tooling assumptions, pickup and placement positions, output target and production schedule the same across proposals. Identify uncertain handling or process steps for a focused automation feasibility study before committing to a platform.
Palletising: include the stack and pallet exchange
For cobot palletising, review package mass with the tooling, the full stack envelope and the proposed operator interaction. Compare an industrial palletising route where the required work envelope, load or rate calls for it. Include pallet removal and replenishment in the operating plan.
Keep depalletising as a separate handling problem
Removing products from an incoming pallet adds uncertainty about the arrival pattern, layer position and item condition. Use the depalletising application review to define the incoming variation and the presentation required by the receiving line.
Build the cycle from the operation sequence
Allocate time for approach, grip confirmation, transfer, release, inspection and machine handshakes. Include waiting and recovery assumptions. The cycle-time planning tool supports an initial budget; representative trials must establish the final performance.
Agree the boundary of a delivered cell
Record tooling, fixtures, sensing, controls, guarding, installation, training and acceptance scope alongside the robot selection. Have the complete application assessed for the intended operating mode; selecting a cobot does not by itself establish a safe collaborative task.
Include recovery work in an automation feasibility study
Name the ordinary exceptions
List an empty component supply, a mis-presented part, an unavailable receiving machine and a failed quality check. For each event, identify which item the robot holds, where work in progress remains and what information an operator needs. These conditions can shape the feeder, fixture and software scope even when the normal motion is straightforward.
Keep product identity through an interrupted cycle
If a cycle stops between pickup and release, the system needs an agreed way to establish which step was completed and which product record applies. Discuss whether the part can safely resume, must be removed under the approved procedure or needs reinspection. A generic reset button is not a complete recovery strategy.
Assess the accessible and serviceable layout
Review replenishment, tooling changes and maintenance positions alongside the production envelope. Changes to access or operating mode need competent machinery-safety assessment; do not treat a slow-motion trial or a collaborative robot label as permission for people to enter a hazardous area. The equipment instructions and approved procedures govern interventions.
Use recovery evidence to compare concepts
Ask how an authorised operator identifies a fault, restores the agreed condition and confirms that product can be released again. Include training, diagnostic information and the record of unresolved actions in the acceptance scope. Start with the feasibility study, then use the cycle-time planner with stated interruption assumptions.