{
  "site": {
    "name": "Oxford Industrial Automation",
    "url": "https://www.oxfordindustrialautomation.co.uk/",
    "language": "en-GB",
    "lastUpdated": "2026-09-01",
    "telephone": "01865 416830",
    "email": "sales@oxfordindustrialautomation.co.uk",
    "address": "Unit 5A, Jefferson Way, Thame, Oxfordshire OX9 3SZ"
  },
  "usage": "Machine-readable discovery index. The canonical HTML pages remain the primary source.",
  "pages": [
    {
      "file": "index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/",
      "title": "Industrial Robots & Cobots UK | Complete Automation Cells",
      "description": "Oxford Industrial Automation engineers complete robot and cobot cells for UK manufacturers: tooling, vision, controls, safeguarding, installation and support.",
      "h1": "Robots & cobots. Built to improve your production.",
      "directAnswer": "",
      "headings": [
        "Start with your process. We specify the right automation.",
        "Speed, reach and payload for automated cells.",
        "Flexible automation for suitable collaborative applications.",
        "Automation options for real production tasks.",
        "Six-Axis Collaborative Robot",
        "160 kg Multifunctional Palletising Robot",
        "Five-Axis Fast Parallel Robot",
        "170 kg Six-Axis Automotive Robot",
        "High-Precision SCARA Robot",
        "Plastic Injection-Moulding Machine Robot",
        "Find the production task you need to solve.",
        "Robotic case packing",
        "Robotic bin picking",
        "Grinding, polishing and deburring",
        "Automation feasibility study",
        "Robot cycle-time calculator",
        "Local robotics integration",
        "One project. Every part connected.",
        "Your production",
        "The complete cell",
        "Build and test",
        "Production handover",
        "Show us the process you want to automate."
      ],
      "faqs": [],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/hero/robotics-production-hero.png",
      "wordCount": 673,
      "lastModified": "2026-09-01"
    },
    {
      "file": "about/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/about/",
      "title": "About Oxford Industrial Automation | UK Robot Integrator",
      "description": "Oxford Industrial Automation designs complete industrial robot and cobot cells around products, production targets, sites and operators across the UK.",
      "h1": "Application-led robot integration for UK manufacturers.",
      "directAnswer": "Oxford Industrial Automation is a UK robot systems integrator focused on complete production cells. We combine robot selection, tooling, controls, vision, safeguarding, installation and commissioning around the customer’s application.",
      "headings": [
        "What is Oxford Industrial Automation?",
        "Customer process first. Robot platform second.",
        "Define assumptions, responsibilities and acceptance.",
        "Continue planning your automation project",
        "UK robotics integrator",
        "How we deliver",
        "Automation guides",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 340,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/",
      "title": "Industrial Robot Applications UK | 21 Automation Solutions",
      "description": "Explore 21 industrial robot and cobot applications including palletising, machine tending, case packing, bin picking, assembly, welding, inspection and finishing.",
      "h1": "Robot automation built around the production task.",
      "directAnswer": "Industrial robots and cobots can automate defined handling, loading, process and inspection tasks including palletising, depalletising, machine and press tending, pick and place, case packing, tray loading, bin picking, assembly, welding, dispensing, spraying, finishing and quality inspection. The complete application must be assessed for product behaviour, cycle, tooling, interfaces, environment and safety.",
      "headings": [
        "Which production tasks can industrial robots and cobots automate?",
        "Start with the result you need in production.",
        "Robotic palletising systems built around your product and line",
        "Compact cobot palletising for suitable end-of-line applications",
        "Automate repetitive machine loading and unloading",
        "CNC machine tending designed around parts, batches and machine cycles",
        "Find, classify and handle products at production speed",
        "Pick, orient and place products with repeatable robot handling",
        "Flexible robotic packaging built around product flow",
        "Repeatable robotic assembly for components and subassemblies",
        "Robotic welding cells engineered for repeatable joints and safe production",
        "Consistent robotic spraying across complex product geometry",
        "Automate repetitive movement between production processes",
        "Connect packing, palletising and dispatch as one controlled system",
        "Automate unloading from pallets into production or warehouse flow",
        "Automate moulded-part take-out and downstream handling",
        "Robotic case packing systems",
        "3D vision robotic bin picking",
        "Robotic tray loading",
        "Robotic dispensing and gluing",
        "Robotic grinding, polishing and deburring",
        "Robotic press tending",
        "Robotic quality inspection",
        "Continue planning your automation project",
        "UK robotics integrator",
        "Industrial robots vs cobots",
        "Robot selection matrix",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 788,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/cnc-machine-tending/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/cnc-machine-tending/",
      "title": "CNC Machine Tending Robots UK | Automated CNC Loading",
      "description": "Industrial robot and cobot CNC machine tending for lathes, machining centres and mills, with part presentation, dual grippers, doors, chucks and controls.",
      "h1": "CNC machine tending designed around parts, batches and machine cycles.",
      "directAnswer": "Yes, where part mass, reach, cycle time, environment and safety requirements fit. The project must also automate or interface with the door, chuck or fixture and provide reliable raw-part presentation and finished-part storage.",
      "headings": [
        "Can a cobot load a CNC machine?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "Six-Axis Collaborative Robot",
        "Flexible Small Pick-Up Robot",
        "Professional Six-Axis General Robot",
        "AC Servo Motor Driven Manipulator",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Robotic press tending",
        "Robot cycle-time calculator",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "What signals does a CNC machine need?",
          "answer": "Typical handshakes include machine ready, cycle complete, door and chuck status, robot clear, load complete, cycle start and fault. Exact requirements depend on the machine and controls."
        },
        {
          "question": "How does the robot handle raw and finished parts?",
          "answer": "A dual gripper can remove a finished part and load a raw blank in one visit. Trays, drawers, conveyors or vision-guided presentation provide parts and store output."
        },
        {
          "question": "Can the robot clean the chuck or part?",
          "answer": "Air blow-off, coolant draining or a cleaning station can be included where appropriate, subject to risk, contamination and process requirements."
        },
        {
          "question": "What limits unattended CNC operation?",
          "answer": "Part capacity, tool life, chip and coolant control, inspection, machine alarms, gripper contamination and recovery from misloads or broken tools all affect autonomy."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 757,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/cobot-palletising/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/cobot-palletising/",
      "title": "Cobot Palletising Systems UK | Collaborative Palletiser Cells",
      "description": "Compact cobot palletising systems for suitable boxes, trays and packaged products, with gripper, infeed, pallet positions, safety and recipe controls.",
      "h1": "Compact cobot palletising for suitable end-of-line applications.",
      "directAnswer": "A cobot palletiser can be suitable when package mass, stack height, reach and cycle time fit the collaborative robot, and when the risk assessment supports the proposed interaction. The gripper, box, pallet and trapping points are part of that assessment.",
      "headings": [
        "When is a cobot palletiser suitable?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "Six-Axis Collaborative Robot",
        "Flexible Small Pick-Up Robot",
        "65 kg Long-Reach Palletising Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "How much can a cobot palletise?",
          "answer": "The usable product mass is lower than the arm payload because the gripper, adapter, sensors and services also count. Reach and wrist moments can be as important as weight."
        },
        {
          "question": "Does a cobot palletiser need fencing?",
          "answer": "Possibly. The complete task must be risk assessed. Pallets, boxes, grippers, trapping points and the required speed may justify guarding or other protective measures."
        },
        {
          "question": "Can a cobot reach tall pallets?",
          "answer": "Only if its usable work envelope and tooling reach the complete stack with suitable joint configurations. A lift column or different robot architecture may be required."
        },
        {
          "question": "Is a cobot always cheaper than an industrial palletiser?",
          "answer": "Not necessarily. Compare complete-cell cost, output, footprint, guarding, reach, payload and operator involvement rather than arm price alone."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 693,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/end-of-line-automation/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/end-of-line-automation/",
      "title": "End-of-Line Automation UK | Packing, Palletising & Handling",
      "description": "Integrated end-of-line automation for product handling, case packing, palletising, wrapping, labelling, inspection and pallet movement.",
      "h1": "Connect packing, palletising and dispatch as one controlled system.",
      "directAnswer": "End-of-line automation covers the operations after a product is made or packed, such as collation, case packing, palletising, wrapping, labelling, inspection and pallet discharge. It integrates robots, conveyors and packaging equipment through one control strategy.",
      "headings": [
        "What is end-of-line automation?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "80 kg Four-Axis Palletising Robot",
        "160 kg Multifunctional Palletising Robot",
        "Five-Axis Fast Parallel Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Robotic case packing",
        "Robotic tray loading",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "Can end-of-line automation be added to an existing line?",
          "answer": "Often. The review should confirm available space, line controls, product discharge, accumulation, rates, utilities and safe access without disrupting current equipment."
        },
        {
          "question": "How is line accumulation sized?",
          "answer": "Buffering depends on upstream and downstream rates, short stops, changeover, pallet exchange and the acceptable impact of downstream faults on production."
        },
        {
          "question": "Can one system handle several lines?",
          "answer": "Potentially. Robots, conveyors and pallet positions can serve multiple infeeds when cycle, routing and fault isolation are engineered appropriately."
        },
        {
          "question": "What equipment can be integrated?",
          "answer": "Typical equipment includes conveyors, case packers, palletisers, wrappers, strappers, printers, label applicators, vision inspection and pallet conveyors."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 686,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/injection-moulding/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/injection-moulding/",
      "title": "Injection Moulding Robot Automation UK | Take-Out & Handling",
      "description": "Injection-moulding robots and Cartesian take-out manipulators for part removal, sprue handling, insert loading and downstream placement from 50T to 2,100T.",
      "h1": "Automate moulded-part take-out and downstream handling.",
      "directAnswer": "Selection considers machine size, platen and mounting interface, vertical and traverse strokes, mould opening, part-release sequence, part and sprue mass, required wrist orientation, cycle time and downstream placement. Machine-tonnage range is only an initial guide.",
      "headings": [
        "How is a robot selected for an injection-moulding machine?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "Injection-Moulding Cartesian Servo Robot",
        "Fast-Action Servo Industrial Manipulator",
        "Plastic Injection-Moulding Machine Robot",
        "Automatic Take-Out Servo Manipulator",
        "Large Five-Axis Servo Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "Is machine tonnage enough to select a take-out robot?",
          "answer": "No. It is an initial guide. Platen dimensions, mounting, strokes, mould opening, part-release sequence, load, orientation and downstream placement must also be confirmed."
        },
        {
          "question": "Can one robot remove the part and sprue?",
          "answer": "Yes, dual-arm or multi-grip tooling can handle finished parts and sprues where the mould layout and cycle support it."
        },
        {
          "question": "Can the robot place inserts into the mould?",
          "answer": "Potentially. Insert presentation, orientation, retention, mould access, confirmation and safety must be engineered and validated."
        },
        {
          "question": "What is the difference between three-, four- and five-axis take-out robots?",
          "answer": "Additional servo axes can provide more orientation and complex placement. The required part path and downstream process determine whether the extra axes are useful."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 732,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/machine-tending/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/machine-tending/",
      "title": "Robot Machine Tending Systems UK | Automated Load & Unload",
      "description": "Robot machine tending for machine tools, presses, moulding machines and production equipment, including grippers, fixtures, doors, controls and guarding.",
      "h1": "Automate repetitive machine loading and unloading.",
      "directAnswer": "Robotic machine tending uses an industrial robot or cobot to load and unload production equipment such as CNC machines, presses, moulding machines or test stations. The complete system includes part presentation, gripping, machine interfaces, safety and finished-part handling.",
      "headings": [
        "What is robotic machine tending?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "Flexible Small Pick-Up Robot",
        "Six-Axis Collaborative Robot",
        "Professional Six-Axis General Robot",
        "170 kg Six-Axis Automotive Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Robotic press tending",
        "Robot simulation",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "Can a robot tend an existing machine?",
          "answer": "Often, if the robot can access the loading position and the machine can provide suitable cycle, status and safety interfaces. Doors, chucks, fixtures or controls may need modification."
        },
        {
          "question": "Can one robot tend two machines?",
          "answer": "Yes, where cycle times, layout, part buffers and fault handling allow. Simulation or timing analysis should confirm that the robot is not the bottleneck."
        },
        {
          "question": "How are parts presented to the robot?",
          "answer": "Options include trays, drawers, conveyors, bowl or step feeders, pallets and vision-guided bins. The best method depends on part geometry, batch size and autonomy required."
        },
        {
          "question": "Can machine tending support lights-out production?",
          "answer": "Potentially, but autonomy depends on part supply, finished-part capacity, tool life, swarf and coolant management, inspection, fault recovery and machine reliability—not only the robot."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 752,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/material-handling/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/material-handling/",
      "title": "Robotic Material Handling Systems UK | Transfer & Loading",
      "description": "Robotic material handling cells for component transfer, loading, unloading, stacking and movement between production processes.",
      "h1": "Automate repetitive movement between production processes.",
      "directAnswer": "Robotic material handling uses a robot to pick, move, orient, load, unload or stack products and components. The cell may include grippers, conveyors, fixtures, sensing, vision, guarding and interfaces with surrounding equipment.",
      "headings": [
        "What is robotic material handling?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "Professional Six-Axis General Robot",
        "170 kg Six-Axis Automotive Robot",
        "300 kg Ultra-Long-Span Six-Axis Robot",
        "Four-Axis Parallel Sorting Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "What weights can material-handling robots move?",
          "answer": "The available reference range spans light products to heavy components, but the complete moving load, centre of gravity, wrist moments, reach and cycle must be checked."
        },
        {
          "question": "Can a robot transfer parts between two machines?",
          "answer": "Yes, where layout, timings, signals and buffers allow. The cell must manage each machine state and recover safely from faults."
        },
        {
          "question": "Can one gripper handle raw and finished parts?",
          "answer": "Sometimes. Dual or adjustable tooling can handle both states, but surface, dimension and contamination differences must be considered."
        },
        {
          "question": "How are products detected?",
          "answer": "Sensors, machine status, fixtures or vision can confirm product presence, position and identity before handling."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 684,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/pick-and-place/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/pick-and-place/",
      "title": "Robotic Pick and Place Systems UK | High-Speed Automation",
      "description": "Robotic pick and place cells for products, components and packs using six-axis, SCARA, delta or collaborative robots with custom grippers and vision.",
      "h1": "Pick, orient and place products with repeatable robot handling.",
      "directAnswer": "Delta or SCARA robots often suit high-speed light-product handling; six-axis robots suit complex orientations and approaches; cobots can suit lighter flexible tasks at moderate rates. The product, gripper, path and cycle determine the final choice.",
      "headings": [
        "Which robot is best for pick and place?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "High-Precision SCARA Robot",
        "Five-Axis Fast Parallel Robot",
        "Flexible Small Pick-Up Robot",
        "Six-Axis Collaborative Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "3D vision bin picking",
        "Robot gripper types",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "How fast can a pick-and-place robot run?",
          "answer": "Finished rate depends on travel, product presentation, grip time, orientation, release, payload and surrounding equipment. Published unloaded robot rates are not complete-cell guarantees."
        },
        {
          "question": "Can one robot pick several products at once?",
          "answer": "Yes, multi-pick tooling can increase output where product spacing, combined payload, release pattern and infeed control permit."
        },
        {
          "question": "When is vision needed?",
          "answer": "Vision is useful when product position, angle, identity or quality is not fixed by mechanical presentation."
        },
        {
          "question": "Can a pick-and-place cell handle fragile products?",
          "answer": "Potentially. Tooling, contact pressure, acceleration and release must be developed around the product, often using representative handling trials."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 706,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-assembly/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-assembly/",
      "title": "Robotic Assembly Systems UK | Automated Component Assembly",
      "description": "Robotic assembly cells for component placement, insertion, fastening, dispensing, inspection and test using six-axis, SCARA or collaborative robots.",
      "h1": "Repeatable robotic assembly for components and subassemblies.",
      "directAnswer": "Robots can pick and orient components, insert parts, apply adhesive, fasten screws, press components, operate process tools, inspect features and transfer assemblies between stations. Product tolerance and presentation determine feasibility.",
      "headings": [
        "What assembly tasks can a robot perform?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "High-Precision SCARA Robot",
        "Flexible Small Pick-Up Robot",
        "Six-Axis Collaborative Robot",
        "Professional Six-Axis General Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "Can a robot assemble parts with tolerance variation?",
          "answer": "Often, using compliant tooling, vision, force sensing, lead-in geometry or controlled fixtures. Trials may be needed where variation is high."
        },
        {
          "question": "Can robots insert components?",
          "answer": "Yes, when alignment, tolerance and force are controlled. SCARA and six-axis robots can both suit insertion depending on approach and orientation."
        },
        {
          "question": "Can the system confirm every assembly step?",
          "answer": "Sensors, vision, force, torque and process-tool feedback can verify selected steps and record results when required."
        },
        {
          "question": "Is robotic assembly suitable for many product variants?",
          "answer": "It can be, but fixtures, feeders, tooling and software must support the variation. A flexible design should be based on a defined product family."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 681,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-bin-picking/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-bin-picking/",
      "title": "Robotic Bin Picking Systems UK | 3D Vision Random Part Picking",
      "description": "Robotic bin picking systems combining 3D vision, industrial robots, grippers and collision-aware motion for random parts, billets, components and containers.",
      "h1": "3D vision robot bin picking for randomly presented parts.",
      "directAnswer": "Robotic bin picking uses a 3D vision system to locate parts in a container, select a viable grasp, guide a robot into the bin and place the picked part at a defined destination. Reliable operation depends on part visibility, grasp access, bin geometry, collision management, re-scan strategy and recovery when no valid pick is available.",
      "headings": [
        "What is robotic bin picking?",
        "Bin picking is a perception, gripping and recovery problem.",
        "Validate the difficult states before committing to the cell.",
        "The minimum bin-picking system is more than a camera and robot.",
        "What evidence should be supplied for a bin-picking assessment?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robot vision systems",
        "Robot grippers and EOAT",
        "Robotic pick and place",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Is 3D vision always necessary for bin picking?",
          "answer": "It is normally required for random three-dimensional piles. Parts presented in a controlled layer or known plane may be handled more simply with 2D vision or mechanical presentation."
        },
        {
          "question": "Can the system pick tangled or interlocked parts?",
          "answer": "Some entanglement can be managed through grasp strategy and re-presentation, but strongly interlocking parts may need mechanical separation or a different container strategy."
        },
        {
          "question": "What happens when no valid pick is visible?",
          "answer": "The system can re-scan, try an alternative grasp, move the pile, request operator intervention or change bins according to the agreed recovery sequence."
        },
        {
          "question": "Can a cobot be used for bin picking?",
          "answer": "Potentially, where payload, reach, speed and the complete risk assessment support it. Random-bin motion, sharp parts and tooling can still require guarding or other protective measures."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 772,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-case-packing/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-case-packing/",
      "title": "Robotic Case Packing Systems UK | Automated Case Loading",
      "description": "Robotic case packing systems for cartons, trays, RSC cases and shelf-ready packs, integrating product presentation, grippers, vision, conveyors and controls.",
      "h1": "Robotic case packing engineered around the product and pack pattern.",
      "directAnswer": "A robotic case packing system identifies or receives products in a controlled presentation, picks them with application-specific tooling and places them into a case, tray or secondary pack. A production-ready cell also includes infeed control, case handling, guarding, controls, recovery logic and validation against the sustained line rate.",
      "headings": [
        "What is a robotic case packing system?",
        "Case packing succeeds when the complete sequence is balanced.",
        "Engineer the product-to-case journey, not an isolated robot move.",
        "Typical elements within a robotic case-packing cell.",
        "What information enables a credible case-packing concept?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robotic packaging systems",
        "Robotic palletising",
        "Robot grippers and EOAT",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can one robot pack several product formats?",
          "answer": "Often, yes. The practical format range depends on size variation, gripping surfaces, case geometry and required rate. Recipes can change positions and timing, while tooling may be adjustable or exchanged."
        },
        {
          "question": "Does the robot erect and close the case?",
          "answer": "The robot may be integrated with separate case erecting, forming, closing or sealing equipment. The best architecture depends on case style, rate and available space."
        },
        {
          "question": "Can vision correct random product orientation?",
          "answer": "Vision can locate and orient suitable products, but severe overlap, reflective surfaces or unstable presentation may require upstream singulation or a different handling strategy."
        },
        {
          "question": "How is an incomplete case handled?",
          "answer": "The controls should track the pick count and product status, then stop, reject or divert an incomplete pack according to the agreed recovery and quality procedure."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 759,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-depalletising/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-depalletising/",
      "title": "Robotic Depalletising Systems UK | Layer & Case Unloading",
      "description": "Robotic depalletising for cases, bags, containers and layers, with vision, grippers, pallet handling, conveyors and safe operator access.",
      "h1": "Automate unloading from pallets into production or warehouse flow.",
      "directAnswer": "The system presents a pallet, locates the load or uses a known pattern, grips a product or layer and places it onto an outfeed. Vision may compensate for pallet and product variation, while controls manage pallets, separators and recovery.",
      "headings": [
        "How does robotic depalletising work?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "160 kg Multifunctional Palletising Robot",
        "80 kg Four-Axis Palletising Robot",
        "170 kg Six-Axis Automotive Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "Does depalletising require vision?",
          "answer": "Vision is useful when pallet position, stack position, layer height or product arrangement varies. Highly consistent loads may use known coordinates with suitable sensing."
        },
        {
          "question": "Can the robot remove a whole layer?",
          "answer": "Yes, with a layer gripper where product stability, combined payload, pallet pattern and release method allow."
        },
        {
          "question": "What happens with damaged pallets or shifted loads?",
          "answer": "The control strategy should detect out-of-range conditions and route the cell to a safe recovery or operator-intervention state."
        },
        {
          "question": "Can the same robot palletise and depalletise?",
          "answer": "Potentially, but layout, tooling, cycle and operating sequence must support both tasks without creating bottlenecks."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 660,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-dispensing-gluing/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-dispensing-gluing/",
      "title": "Robotic Dispensing & Gluing Systems UK | Adhesive Automation",
      "description": "Robotic dispensing, gluing and sealant application systems with controlled paths, process tooling, dosing equipment, fixtures, vision and recipe management.",
      "h1": "Robotic dispensing and gluing with controlled paths and process delivery.",
      "directAnswer": "A robotic dispensing system moves a nozzle or the workpiece through a programmed path while a metering system controls material flow. A complete solution must manage bead position, volume, start and stop behaviour, material condition, part location, nozzle maintenance, recipes and verification—not only robot motion.",
      "headings": [
        "What is a robotic dispensing system?",
        "Process stability matters as much as positional repeatability.",
        "Engineer motion, material and fixture as one process.",
        "Define what must be verified, not only what can be measured.",
        "What information supports dispensing trials and concept design?",
        "Frequently asked questions",
        "Continue planning the project.",
        "High-precision SCARA robot",
        "Robotic assembly",
        "Robot vision systems",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can one robot run several dispensing recipes?",
          "answer": "Yes. Robot paths and process settings can be recipe-controlled, subject to nozzle, material and fixture compatibility."
        },
        {
          "question": "How is bead quality checked?",
          "answer": "Options include pressure or flow monitoring, vision or profile inspection, weight checks and process parameter recording. The inspection method should match the failure mode and quality risk."
        },
        {
          "question": "Can two-part materials be automated?",
          "answer": "Yes, using suitable metering and mixing equipment. Ratio control, pot life, purge and maintenance requirements must be integrated into the cell design."
        },
        {
          "question": "Is a SCARA or six-axis robot better for dispensing?",
          "answer": "A SCARA can suit fast planar paths, while a six-axis robot is usually better for complex three-dimensional surfaces and changing nozzle orientation."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 715,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-grinding-polishing-deburring/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-grinding-polishing-deburring/",
      "title": "Robotic Grinding, Polishing & Deburring Systems UK",
      "description": "Robotic grinding, polishing, sanding and deburring cells integrating force control, process tooling, fixtures, extraction, consumable management and safety.",
      "h1": "Robotic grinding, polishing and deburring with controlled contact force.",
      "directAnswer": "A robotic finishing cell moves a part or abrasive tool through a defined contact path while controlling force, speed, angle and tool condition. Repeatable quality depends on compliance, part location, process-tool selection, consumable wear, dust extraction, spark management and verification of the finished surface.",
      "headings": [
        "How does robotic grinding and polishing work?",
        "Finishing automation must control the process, not just the path.",
        "Match robot, process tool and fixture to the real material-removal task.",
        "Heavy process forces require engineering margin.",
        "What should be supplied for a robotic finishing assessment?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Process tooling and EOAT",
        "Robot programming and controls",
        "Metal fabrication robotics",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can robots maintain a consistent finish on variable parts?",
          "answer": "They can compensate for defined variation using compliant tooling, force control, sensing and robust fixtures. The practical range must be proven through trials."
        },
        {
          "question": "Does the robot hold the part or the tool?",
          "answer": "Either approach can be used. Holding the part can simplify stationary process equipment; holding the tool can provide better access to large or fixed components."
        },
        {
          "question": "How is abrasive wear handled?",
          "answer": "The cell can monitor time, current, distance or process results and apply wear compensation or request consumable replacement at a defined limit."
        },
        {
          "question": "What safety measures are normally required?",
          "answer": "The assessment may include guarding, interlocked access, extraction, spark and fire controls, noise reduction, safe tool change and isolation of stored or rotational energy."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 729,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-packaging/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-packaging/",
      "title": "Robotic Packaging Systems UK | Packing, Loading & Collation",
      "description": "Robotic packaging systems for product loading, collation, case packing, tray loading and flexible pack handling with vision, grippers and line controls.",
      "h1": "Flexible robotic packaging built around product flow.",
      "directAnswer": "Robots can load products into trays or cases, collate items, place components into packaging machines, orient products, handle packs between processes and route rejects. The correct robot and gripper depend on rate, product condition and presentation.",
      "headings": [
        "What packaging tasks can robots automate?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "Five-Axis Fast Parallel Robot",
        "Four-Axis Parallel Sorting Robot",
        "High-Precision SCARA Robot",
        "Six-Axis Collaborative Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Robotic case packing",
        "Robotic tray loading",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "Can robots load products into trays or cartons?",
          "answer": "Yes. The system can place individual products or groups into defined patterns, subject to product stability, pack geometry and cycle requirements."
        },
        {
          "question": "Can packaging robots handle random product orientation?",
          "answer": "Vision can locate and orient suitable products, although overlap, poor contrast or unstable presentation may require additional infeed control."
        },
        {
          "question": "How are format changes handled?",
          "answer": "Recipes can change robot positions and machine settings. Tooling may be fixed, adjustable or automatically changed depending on the product range."
        },
        {
          "question": "Can the cell reject faulty products?",
          "answer": "Yes. Inspection or upstream status can route products to a reject location, provided result tracking and fail-safe behaviour are designed into the controls."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 716,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-palletising/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-palletising/",
      "title": "Robotic Palletising Systems UK | Boxes, Bags & Containers",
      "description": "Robotic palletising systems for boxes, bags, containers and packaged products. Complete cells with infeed, grippers, pallet handling, guarding and controls.",
      "h1": "Robotic palletising systems built around your product and line.",
      "directAnswer": "A robotic palletising system receives products from a production or packing line, identifies the correct recipe, grips one or more items and stacks them in a defined pallet pattern. The complete cell can include conveyors, guarding, pallet handling, slip sheets, grippers and controls.",
      "headings": [
        "What is a robotic palletising system?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "65 kg Long-Reach Palletising Robot",
        "80 kg Four-Axis Palletising Robot",
        "160 kg Multifunctional Palletising Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "What products can a palletising robot handle?",
          "answer": "Boxes, trays, bags, buckets, drums, bottles in grouped formats and other stable packaged products may be suitable. Gripper trials can confirm difficult, porous, flexible or fragile packages."
        },
        {
          "question": "How is palletising cycle time calculated?",
          "answer": "It includes product arrival, accumulation, gripping, travel, placement, release, pallet changes and any slip-sheet handling. Multi-pick tooling can increase throughput where package and payload permit."
        },
        {
          "question": "Can one cell palletise several SKUs?",
          "answer": "Yes. Recipes can control pallet pattern, pick quantity, positions and surrounding equipment. Tooling and infeed presentation must accommodate the full product range."
        },
        {
          "question": "Can the cell feed a pallet wrapper?",
          "answer": "Yes. Full pallets can transfer to wrapping, strapping or labelling equipment when layout, safety and controls are designed as one end-of-line system."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 702,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-press-tending/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-press-tending/",
      "title": "Robotic Press Tending Systems UK | Automated Press Loading",
      "description": "Robotic press tending systems for loading, unloading and transferring components around presses, integrating grippers, fixtures, controls, safety and part tracking.",
      "h1": "Robotic press tending for controlled loading, unloading and transfer.",
      "directAnswer": "Robotic press tending uses a robot to present a component to a press, confirm loading, coordinate the machine cycle and remove or transfer the finished part. A complete system must manage safe signals, reach into the die area, part orientation, grip confirmation, fault recovery and the interaction between robot and press operating modes.",
      "headings": [
        "What is robotic press tending?",
        "Press tending must be designed as an interlocked machine sequence.",
        "Validate access, timing and press interfaces before choosing the robot.",
        "Press tending can be stand-alone or part of a transfer sequence.",
        "What information supports a press-tending concept?",
        "Frequently asked questions",
        "Continue planning the project.",
        "CNC machine tending",
        "Robot simulation and offline programming",
        "Robot cell safety",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can a robot tend an existing press?",
          "answer": "Often, subject to a survey of access, controls, safeguarding, machine condition and the feasibility of a suitable interface. A retrofit may require press or guarding modifications."
        },
        {
          "question": "How does the robot know the part is loaded correctly?",
          "answer": "Grip sensors, part-present sensors, fixture switches, vision or dimensional checks can be used according to the risk and process tolerance."
        },
        {
          "question": "Can one robot transfer parts between several presses?",
          "answer": "Yes, where reach, cycle time, buffer strategy and safe cell layout support it. Simulation is useful for identifying timing conflicts and recovery requirements."
        },
        {
          "question": "Which robot payload should be selected?",
          "answer": "Payload must include the finished or raw component, complete gripper, hoses, cables and dynamic margin. Reach, wrist moments and access can be more limiting than nominal payload."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 741,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-quality-inspection/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-quality-inspection/",
      "title": "Robotic Quality Inspection Systems UK | Vision-Guided Inspection",
      "description": "Robotic quality inspection systems using cameras, 3D sensing and controlled part presentation for multi-view inspection, measurement and defect detection.",
      "h1": "Robotic quality inspection for controlled multi-view product checks.",
      "directAnswer": "Robotic quality inspection combines controlled robot motion with machine vision or other sensing so a product can be viewed from several positions and orientations. The design must control lighting, focus, calibration, part presentation, inspection time, result handling and the response to an uncertain or failed result.",
      "headings": [
        "What is robotic quality inspection?",
        "Inspection performance begins with the defect and decision requirement.",
        "Define inspection evidence before selecting cameras or robots.",
        "Move the camera, move the product, or combine both approaches.",
        "What should be supplied for an inspection assessment?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robot vision systems",
        "Vision-guided sorting",
        "Electronics and electrical manufacturing",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Why use a robot instead of fixed cameras?",
          "answer": "A robot can provide multiple viewpoints, variable working distance or controlled product orientation where fixed cameras cannot see every relevant feature."
        },
        {
          "question": "Can AI vision find defects that are difficult to define?",
          "answer": "Machine-learning methods can support suitable appearance-based inspection, but performance still depends on representative data, controlled imaging and a clear validation method."
        },
        {
          "question": "Can the system measure dimensions?",
          "answer": "Yes, using calibrated 2D or 3D methods where the required tolerance, field of view and environmental stability are achievable."
        },
        {
          "question": "What happens to uncertain results?",
          "answer": "The cell can reject, quarantine, re-inspect or request operator review according to the agreed quality-risk procedure."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 698,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-spraying/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-spraying/",
      "title": "Robotic Spraying & Coating Systems UK",
      "description": "Robotic spraying and coating cells for suitable paint, powder and process applications, with purpose-selected robots, extraction, safety, fixtures and controls.",
      "h1": "Consistent robotic spraying across complex product geometry.",
      "directAnswer": "A spraying robot can repeat the application path and process settings, improve coverage consistency and reduce operator exposure. Suitability depends on the coating, workpiece geometry, extraction, hazardous-area requirements and cleaning method.",
      "headings": [
        "Why use a robot for spraying?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "Six-Axis Industrial Spraying Robot",
        "Convenient Six-Axis Welding Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "Can any industrial robot be used for paint spraying?",
          "answer": "No. The robot and associated equipment must be suitable for the material, environment and hazardous-area requirements. Purpose-designed protection may be necessary."
        },
        {
          "question": "How is spray coverage programmed?",
          "answer": "Paths can be developed from product geometry and refined through trials to control gun angle, distance, speed, overlap and triggering."
        },
        {
          "question": "Can one cell spray different products?",
          "answer": "Recipes and flexible fixtures can support variants, but gun access, cleaning, colour change and cycle must be evaluated across the range."
        },
        {
          "question": "What information is needed for a spraying project?",
          "answer": "Provide material and safety data, product geometry, target finish, current method, booth and extraction information, required output and cleaning/changeover requirements."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 642,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-tray-loading/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-tray-loading/",
      "title": "Robotic Tray Loading Systems UK | Automated Product Placement",
      "description": "Robotic tray loading and unloading systems for products, components and packs, integrating conveyors, indexing, vision, grippers, recipes and inspection.",
      "h1": "Robotic tray loading with repeatable product placement and changeover.",
      "directAnswer": "A tray-loading cell presents products and empty trays at known positions, picks one or more items and places them into defined pockets or patterns. The design must coordinate product arrival, tray indexing, gripping, placement tolerance, full-tray discharge, empty-tray supply and recovery from missing or rejected items.",
      "headings": [
        "How does robotic tray loading work?",
        "Accurate tray loading depends on both sides of the pick.",
        "Define the complete tray exchange and product-status logic.",
        "Single-pick and multi-pick tooling solve different constraints.",
        "What should be provided for a tray-loading feasibility review?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robotic packaging",
        "Vision-guided sorting",
        "Fast parallel robot",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can a robot load flexible or delicate products into trays?",
          "answer": "Yes, subject to trials. Tooling, acceleration, contact surfaces and pocket clearance must be designed to prevent deformation, marking or damage."
        },
        {
          "question": "Can the robot load several products at once?",
          "answer": "Multi-pick tooling can increase output when product presentation and payload permit it. The complete tool mass, product tolerance and tray geometry must be checked."
        },
        {
          "question": "Can vision correct tray or product position?",
          "answer": "Vision can compensate for suitable variation, but stable mechanical location is usually preferred where practical because it simplifies cycle and validation."
        },
        {
          "question": "How are missing products handled?",
          "answer": "The controls can track pocket status and either complete, reject, hold or divert the tray according to the agreed quality and recovery procedure."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 708,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/robotic-welding/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/robotic-welding/",
      "title": "Robotic Welding Systems UK | Arc, Spot & Laser Cells",
      "description": "Robotic welding cells for suitable arc, spot and laser applications, including positioners, extraction, guarding, fixtures, controls and process integration.",
      "h1": "Robotic welding cells engineered for repeatable joints and safe production.",
      "directAnswer": "Robotic welding is strongest where parts can be fixtured consistently, joint access is repeatable, production volume justifies automation and the weld process can be controlled within the required cycle and quality criteria.",
      "headings": [
        "When is robotic welding suitable?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "Convenient Six-Axis Welding Robot",
        "Professional Six-Axis General Robot",
        "170 kg Six-Axis Automotive Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Robotic grinding and finishing",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "Can a robot weld variable parts?",
          "answer": "Variation can be managed within limits using good fixtures, seam finding or vision, but excessive fit-up variation reduces reliability and may require upstream process improvement."
        },
        {
          "question": "Does the cell need a positioner?",
          "answer": "A positioner may be required to keep joints accessible and maintain suitable welding orientation. It can also allow loading while the robot welds in another station."
        },
        {
          "question": "What safety systems are needed?",
          "answer": "The cell may require physical guarding, interlocked access, fume extraction, welding screens, process isolation and safety controls based on the risk assessment."
        },
        {
          "question": "Can welding parameters be recorded?",
          "answer": "Depending on the welding equipment and controls, process status and selected parameters can be monitored or logged for quality and traceability."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 698,
      "lastModified": "2026-09-01"
    },
    {
      "file": "applications/vision-sorting/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/applications/vision-sorting/",
      "title": "Vision-Guided Robot Sorting Systems UK",
      "description": "Vision-guided robot sorting for locating, orienting, inspecting and routing products on conveyors using delta, SCARA or six-axis robots.",
      "h1": "Find, classify and handle products at production speed.",
      "directAnswer": "A camera captures products, software locates or classifies them, and calibrated coordinates are sent to the robot. For moving conveyors, encoder tracking predicts where each product will be when the robot picks it.",
      "headings": [
        "How does vision-guided robot sorting work?",
        "What the cell is designed to achieve.",
        "How the application is defined before equipment selection.",
        "What to send for a useful feasibility review.",
        "Robot types to evaluate for this task.",
        "Five-Axis Fast Parallel Robot",
        "Four-Axis Parallel Sorting Robot",
        "High-Precision SCARA Robot",
        "Flexible Small Pick-Up Robot",
        "Frequently asked questions",
        "Continue planning your automation project",
        "End-of-arm tooling",
        "How to choose a robot",
        "Robot automation cost",
        "Robotic quality inspection",
        "3D vision bin picking",
        "Review this production task with us."
      ],
      "faqs": [
        {
          "question": "Can a vision robot pick overlapping products?",
          "answer": "Sometimes, particularly with 3D vision, but heavy occlusion can hide valid grip points. Product presentation may still need conditioning or recirculation."
        },
        {
          "question": "Can the system inspect and sort at the same time?",
          "answer": "Yes, if the image quality, resolution and cycle allow. Inspection results can assign each product to a destination or reject route."
        },
        {
          "question": "What happens if the camera cannot identify a product?",
          "answer": "The controls should define an uncertain-result strategy such as reject, recirculate, stop or request operator review."
        },
        {
          "question": "How is conveyor tracking achieved?",
          "answer": "An encoder measures belt movement. The vision and robot systems use that motion to update each product position until pick interception."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 732,
      "lastModified": "2026-09-01"
    },
    {
      "file": "contact/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/contact/",
      "title": "Discuss a Robot Automation Project | Oxford Industrial Automation",
      "description": "Send product, process, target output and site information for an initial industrial robot or cobot application review. Call 01865 416830.",
      "h1": "Tell us what you want to automate.",
      "directAnswer": "",
      "headings": [
        "Useful starting information",
        "A practical application review, not a generic sales response."
      ],
      "faqs": [],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 293,
      "lastModified": "2026-09-01"
    },
    {
      "file": "faq/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/faq/",
      "title": "Industrial Robot & Cobot FAQ | UK Automation Answers",
      "description": "Answers to common questions about robot integration, cobots, cost, ROI, payload, safety, machine tending, palletising, commissioning and project planning.",
      "h1": "Industrial robot and cobot questions, answered clearly.",
      "directAnswer": "Send a short video of the current task together with product dimensions and mass, target output, shift pattern, variants, available space and surrounding-machine information. That is enough to identify the main technical questions and next steps.",
      "headings": [
        "What is the fastest way to assess an automation opportunity?",
        "Robot and cobot FAQ",
        "Go deeper into selection, safety, cost and ROI.",
        "Industrial robots vs cobots: which suits your application?",
        "Types of industrial robots and where each architecture fits",
        "How to choose the right robot for a production task",
        "Robot payload, reach and repeatability—what the figures really mean",
        "How much does robot automation cost?",
        "Robot automation ROI and payback calculator",
        "Cobot safety and guarding: what UK manufacturers need to assess",
        "Industrial robot and cobot selection matrix",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "What does Oxford Industrial Automation supply?",
          "answer": "We design and integrate complete industrial robot and cobot cells around the customer’s product, production target and site. Scope can include tooling, controls, vision, guarding, conveyors, installation, commissioning and training."
        },
        {
          "question": "What information should I send for a robot project?",
          "answer": "Send product dimensions and mass, a video of the current process, target output, product variants, available space, surrounding equipment, shift pattern and any known environmental or safety constraints."
        },
        {
          "question": "What is the difference between an industrial robot and a cobot?",
          "answer": "Industrial robots normally operate in safeguarded cells and can support high speed and payload. Cobots include functions that can support collaborative operation, but the complete task still requires risk assessment and may still need guarding."
        },
        {
          "question": "How much does robot automation cost?",
          "answer": "Cost depends on the complete cell: robot, tooling, guarding, controls, product presentation, vision, interfaces, engineering, installation and commissioning. A defined application is needed for a useful budget."
        },
        {
          "question": "How long does a robot automation project take?",
          "answer": "Programme depends on complexity, trials, approvals, component lead times, customer interfaces, build, testing and site access. A project-specific programme is issued after the scope and dependencies are understood."
        },
        {
          "question": "Can you integrate with existing machinery?",
          "answer": "Often. Existing equipment must be reviewed for physical access, cycle timing, controls signals, safety, mechanical interfaces and responsibility for modifications."
        },
        {
          "question": "Can one robot handle several products?",
          "answer": "Yes, within a defined range. Recipes, adjustable tooling, vision or automatic tool change can support variants, but all products need to be included in the engineering and acceptance scope."
        },
        {
          "question": "Do cobots work without guarding?",
          "answer": "Only where the complete application risk assessment and validation support that arrangement. Grippers, products, trapping points, process hazards and required speed can still require protective measures."
        },
        {
          "question": "What counts toward robot payload?",
          "answer": "The product, gripper, adapter, tool changer, sensors, valves, hoses and cables all count. Centre of gravity, wrist moments and acceleration also need checking."
        },
        {
          "question": "Can you test products before final design?",
          "answer": "Representative handling or vision trials can reduce risk where gripping, presentation, inspection or product variability is uncertain."
        },
        {
          "question": "What is included in robot commissioning?",
          "answer": "Installation checks, safety validation, interface testing, product proving, cycle optimisation, training, acceptance testing and handover documentation are typical elements."
        },
        {
          "question": "Can robots support traceability?",
          "answer": "Yes. Robot and PLC controls can exchange identifiers, inspection results and process status with printers, readers, databases or site systems where interfaces are defined."
        },
        {
          "question": "How do I calculate robot automation ROI?",
          "answer": "Compare the investment with expected annual net benefit using real labour, output, quality, overtime, maintenance and operating data. Use conservative, expected and upside scenarios."
        },
        {
          "question": "Which robot is best for palletising?",
          "answer": "The choice follows package mass, gripper, stack height, pallet pattern, rate and footprint. Four-axis palletisers are common; six-axis robots and cobots can suit specific ranges."
        },
        {
          "question": "Are the robot specifications on this website final?",
          "answer": "No. They are published reference data used for initial comparison. Current technical information, availability and final suitability are confirmed during application engineering."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 894,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/",
      "title": "Industrial Robot Guides & Calculators UK | 12 Technical Resources",
      "description": "Twelve practical robot and cobot guides covering selection, grippers, cycle time, layout, cost, ROI, safety standards, payload, reach and robot types.",
      "h1": "Practical guidance for planning robot automation.",
      "directAnswer": "A credible specification should define the production task, product variation, sustainable cycle, payload including tooling, work envelope, gripper or process method, presentation, interfaces, safeguarding, layout, maintenance and commercial assumptions. These guides organise that evidence before equipment selection.",
      "headings": [
        "What should be understood before specifying a robot automation project?",
        "Choose the next topic for your project.",
        "Industrial robots vs cobots: which suits your application?",
        "Types of industrial robots and where each architecture fits",
        "How to choose the right robot for a production task",
        "Robot payload, reach and repeatability—what the figures really mean",
        "How much does robot automation cost?",
        "Robot automation ROI and payback calculator",
        "Cobot safety and guarding: what UK manufacturers need to assess",
        "Industrial robot and cobot selection matrix",
        "Robot gripper types guide",
        "Robot cycle-time calculator",
        "Robot cell layout design guide",
        "UK industrial robot safety standards",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 482,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/cobot-safety-and-guarding/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/cobot-safety-and-guarding/",
      "title": "Cobot Safety & Guarding | UK Collaborative Robot Guide",
      "description": "Understand cobot safety, collaborative operating modes, risk assessment, tooling hazards, speed and separation, guarding and application validation.",
      "h1": "Cobot safety and guarding: what UK manufacturers need to assess.",
      "directAnswer": "Only when the complete application risk assessment and validation support that arrangement. The arm’s collaborative features do not remove hazards created by the gripper, product, process, trapping points, speed, force or adjacent machinery.",
      "headings": [
        "Can a cobot operate without guarding?",
        "Select the operating concept from the task and required interaction.",
        "The tool and workpiece can be more hazardous than the arm.",
        "Document the final settings and test the real application.",
        "Check current official safety and conformity guidance.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Complete robot cell integration",
        "Robot selection matrix",
        "Discuss your application",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Is a cobot safe to touch?",
          "answer": "The arm may include functions intended to limit risk, but safe contact depends on the application, speed, force, body region, tool, product and surroundings. Contact is not automatically acceptable."
        },
        {
          "question": "Does a cobot need a risk assessment?",
          "answer": "Yes. The complete machine and all operating modes must be assessed. The risk assessment determines whether collaborative operation, additional sensing or physical guarding is appropriate."
        },
        {
          "question": "Can a cobot use a sharp tool?",
          "answer": "It may be technically possible, but the tool hazard can make close human collaboration unsuitable. Guarding or separation may be required regardless of the robot arm type."
        },
        {
          "question": "What happens if the product changes?",
          "answer": "A change in mass, shape, edges, temperature, grip or path can affect safety and performance. The risk assessment, payload data, program and validation should be reviewed."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 691,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/how-to-choose-a-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/how-to-choose-a-robot/",
      "title": "How to Choose an Industrial Robot | 10-Point Selection Guide",
      "description": "Choose an industrial robot or cobot by payload, reach, cycle time, orientation, environment, safety, tooling, footprint, interfaces and lifecycle support.",
      "h1": "How to choose the right robot for a production task.",
      "directAnswer": "At minimum, define the product mass and geometry, end-effector estimate, pick and place positions, required orientation, target cycle, operating hours, environment, available space, machine interfaces, product variants and how people will load, change over and maintain the cell.",
      "headings": [
        "What information is needed to choose an industrial robot?",
        "Check the complete payload and working envelope.",
        "Select for the real cycle, duty and operating conditions.",
        "Evaluate safety, interfaces and lifecycle before placing an order.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Complete robot cell integration",
        "Robot selection matrix",
        "Discuss your application",
        "Robot gripper types",
        "Robot cell layout design",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "How much payload margin should a robot have?",
          "answer": "There is no universal percentage. The complete load, centre of gravity, wrist moments, acceleration and future product range should be checked against the manufacturer’s load diagrams and application requirements."
        },
        {
          "question": "Is robot repeatability the same as accuracy?",
          "answer": "No. Repeatability describes returning to a position consistently; absolute accuracy describes closeness to a commanded real-world position. Calibration or vision may be needed for some processes."
        },
        {
          "question": "Can I choose a robot from reach and payload alone?",
          "answer": "No. Those are initial filters. Motion path, wrist load, cycle, mounting, environment, safety, interfaces, tooling and maintenance access must also be validated."
        },
        {
          "question": "Should I buy a bigger robot for future flexibility?",
          "answer": "Only after assessing the trade-offs. A larger robot may increase footprint, mass, cost and safeguarding requirements. Future needs should be defined rather than assumed."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 689,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/industrial-robot-safety-standards-uk/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/industrial-robot-safety-standards-uk/",
      "title": "Industrial Robot Safety Standards UK | ISO 10218, PUWER & Guarding",
      "description": "UK industrial robot safety guide covering ISO 10218-1:2025, ISO 10218-2:2025, collaborative applications, PUWER, machinery regulations, guarding and validation.",
      "h1": "Industrial robot safety standards and UK cell-integration responsibilities.",
      "directAnswer": "Robot-cell projects commonly consider ISO 10218-1:2025 for industrial robots and ISO 10218-2:2025 for industrial robot applications and cells, together with risk-assessment, functional-safety, guarding, interlocking and application-specific standards. UK duties can also include the Supply of Machinery (Safety) Regulations 2008 for supplied machinery and PUWER for work equipment in use. The exact framework depends on the machine, use, supply route and project scope.",
      "headings": [
        "Which safety standards apply to industrial robot cells in the UK?",
        "Safety is determined by the complete application and operating task.",
        "Develop the safety concept alongside the process and layout.",
        "Industrial robot safety standards were revised in 2025.",
        "Current safety and regulatory sources to consult.",
        "What project information supports the safety workstream?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robot cell safety engineering",
        "Cobot safety and guarding",
        "Robot cell layout design",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Are ISO 10218-1:2011 and ISO 10218-2:2011 still the current editions?",
          "answer": "ISO lists the 2025 editions of ISO 10218-1 and ISO 10218-2 as the current industrial robot safety standards. Project specifications should confirm the applicable edition and transition requirements."
        },
        {
          "question": "Does a cobot cell always work without guarding?",
          "answer": "No. Collaborative capability is only one input. The complete application, tooling, product, speed, force, pinch points and operator tasks must be risk assessed, and guarding or other protective measures may still be required."
        },
        {
          "question": "What is the difference between ISO 10218-1 and ISO 10218-2?",
          "answer": "Part 1 addresses industrial robot design and associated information, while Part 2 addresses integration of robot applications and robot cells, including commissioning, operation, maintenance and decommissioning considerations."
        },
        {
          "question": "Who is responsible for validating the robot cell?",
          "answer": "Responsibilities depend on the supply and project structure. They should be contractually defined, with competent parties completing the required risk assessment, verification, validation, documentation and handover activities."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 901,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/industrial-robots-vs-cobots/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/industrial-robots-vs-cobots/",
      "title": "Industrial Robots vs Cobots | UK Manufacturer’s Guide",
      "description": "Compare industrial robots and collaborative robots by speed, payload, safety, footprint, flexibility, cost drivers and suitable manufacturing applications.",
      "h1": "Industrial robots vs cobots: which suits your application?",
      "directAnswer": "A cobot is designed with functions that can support collaborative operation, while a conventional industrial robot is normally integrated in a safeguarded cell. The final safety arrangement is determined by the complete task, tool, product, speed, force and access—not by the arm name alone.",
      "headings": [
        "What is the main difference between an industrial robot and a cobot?",
        "Compare the required duty before comparing the arm.",
        "A cobot does not automatically remove the need for guarding.",
        "Choose the architecture that meets the production requirement safely.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Complete robot cell integration",
        "Robot selection matrix",
        "Discuss your application",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Are cobots slower than industrial robots?",
          "answer": "Often in collaborative operation, because speed and force may need limiting around people. A cobot can sometimes run faster when safeguarded, but the selected operating mode and risk assessment determine permissible performance."
        },
        {
          "question": "Can a cobot palletise boxes?",
          "answer": "Yes, within its payload, reach, stack-height and cycle limits. The complete payload includes the gripper, and the risk assessment must consider boxes, pallets, trapping points and operator access."
        },
        {
          "question": "Do industrial robots always need fences?",
          "answer": "They require an appropriate safeguarding strategy, which may use physical guards, interlocked access, electro-sensitive devices or safety-rated functions. The final arrangement follows the risk assessment."
        },
        {
          "question": "Which costs more: an industrial robot or a cobot?",
          "answer": "Arm price alone is not a reliable comparison. Tooling, guarding, controls, integration, product presentation, installation and the output achieved determine whole-cell cost and value."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 707,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/robot-automation-cost/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/robot-automation-cost/",
      "title": "How Much Does Robot Automation Cost? UK Planning Guide",
      "description": "Understand robot automation cost drivers: robot, tooling, guarding, controls, conveyors, vision, engineering, installation, commissioning and support.",
      "h1": "How much does robot automation cost?",
      "directAnswer": "The main cost drivers are robot size and quantity, end-of-arm tooling, product presentation, guarding and safety, controls, vision, conveyors or fixtures, machine interfaces, engineering, testing, installation, commissioning, documentation and training. Complexity and uncertainty usually matter more than arm price alone.",
      "headings": [
        "What determines the cost of a robot cell?",
        "Budget for the complete system and the work needed to prove it.",
        "Site preparation and product variability are often underestimated.",
        "Provide clear inputs and compare whole-life value.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Complete robot cell integration",
        "Robot selection matrix",
        "Discuss your application",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can you quote a robot cell from a photo?",
          "answer": "A photo can start the discussion, but a reliable proposal usually needs product data, cycle requirements, layout, interfaces, operating conditions and a clear scope. Trials may be needed for difficult handling."
        },
        {
          "question": "Why does integration sometimes cost more than the robot arm?",
          "answer": "Integration includes the tooling, guarding, controls, fixtures, interfaces, engineering, build, testing, installation, validation and training needed to turn the arm into a working production system."
        },
        {
          "question": "What should a robot-cell quotation include?",
          "answer": "It should identify equipment, engineering, tooling, safety scope, software, testing, installation, commissioning, documentation, training, assumptions, exclusions, customer responsibilities and acceptance criteria."
        },
        {
          "question": "How can I reduce automation project cost?",
          "answer": "Reduce uncertainty early, standardise products and interfaces where possible, provide accurate data, avoid unnecessary complexity and define future flexibility explicitly rather than over-specifying every possibility."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 662,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/robot-automation-roi/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/robot-automation-roi/",
      "title": "Robot Automation ROI Calculator | UK Manufacturing",
      "description": "Estimate robot automation payback using labour, shifts, uptime, scrap, maintenance and investment inputs. Use the result as an initial feasibility model.",
      "h1": "Robot automation ROI and payback calculator.",
      "directAnswer": "Simple payback is the automation investment divided by expected annual net benefit. Annual benefit may include labour redeployment, added capacity, reduced scrap, fewer injuries or overtime and avoided downtime, less annual maintenance and operating cost.",
      "headings": [
        "How is robot automation payback calculated?",
        "Build the model from observable operating data.",
        "Use scenarios rather than one optimistic answer.",
        "Treat the calculator as a feasibility tool, not a quotation.",
        "Estimate simple payback from your own inputs.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Complete robot cell integration",
        "Robot selection matrix",
        "Discuss your application",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "What is a good payback period for robot automation?",
          "answer": "There is no universal threshold. It depends on the company’s investment criteria, risk, asset life, demand certainty and strategic benefits. Use conservative assumptions and compare alternatives."
        },
        {
          "question": "Should labour saving equal all current operator hours?",
          "answer": "Usually not. Automation may still require loading, supervision, changeover, quality checks and maintenance. Model only the hours genuinely removed or redeployed."
        },
        {
          "question": "How should increased output be valued?",
          "answer": "Use contribution from saleable output that the business expects to sell, not theoretical maximum robot capacity. Include upstream and downstream constraints."
        },
        {
          "question": "Does the calculator replace a quotation?",
          "answer": "No. It is an early planning model. Final investment and performance depend on the engineered scope, trials, site conditions and commercial quotation."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 727,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/robot-cell-layout-design/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/robot-cell-layout-design/",
      "title": "Robot Cell Layout Design Guide | Reach, Flow, Access & Guarding",
      "description": "Plan an industrial robot cell layout around work envelope, product flow, fixtures, machines, guarding, operator access, maintenance, recovery and future formats.",
      "h1": "Robot cell layout design: fit the complete operating task into the space.",
      "directAnswer": "A robot cell layout should show the robot and full working envelope, tooling, products, fixtures, machines, conveyors, guarding, safety devices, operator stations, material replenishment, maintenance access, utilities, cable routes, removal paths and the surrounding production flow. It should also account for setup, recovery and foreseeable future formats.",
      "headings": [
        "What should a robot cell layout include?",
        "The smallest footprint is not automatically the best production layout.",
        "Design all operating modes, not only automatic production.",
        "A useful design review walks through real tasks.",
        "What information should be available before freezing the layout?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robot simulation and offline programming",
        "Robot cell safety",
        "How to choose an industrial robot",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "How much space is needed around an industrial robot?",
          "answer": "There is no single clearance. Space depends on the full work envelope, stopping behaviour, guarding, doors, maintenance tasks, tool change, material flow and surrounding equipment."
        },
        {
          "question": "Can the robot be mounted on a wall, ceiling or track?",
          "answer": "Some robots and applications support alternative mounting or external axes. The platform, structure, cable routing, loads, calibration and safety implications must be verified."
        },
        {
          "question": "Should the control cabinet be inside the guarding?",
          "answer": "It is often preferable to locate routine-access controls outside the safeguarded space, while considering cable length, environment, service access and manufacturer requirements."
        },
        {
          "question": "How should future product formats be allowed for?",
          "answer": "Reserve reachable positions, fixture or tooling space, control capacity and safe changeover access for credible future products rather than attempting to make every possible format fit."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 748,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/robot-cycle-time-calculator/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/robot-cycle-time-calculator/",
      "title": "Robot Cycle Time Calculator | Automation Capacity Planning",
      "description": "Use a robot cycle time calculator to compare required output with pick, place, gripping, vision, process and allowance time, then identify the cycle margin to validate.",
      "h1": "Robot cycle-time calculator for early automation planning.",
      "directAnswer": "For a repeating task, add the time for each pick motion, grip action, transfer, place motion, release, process dwell, sensing and fixed machine interaction, then apply a realistic engineering allowance. Compare that calculated task cycle with the available seconds per unit derived from the required output. This produces an initial capacity check, not a guaranteed production rate.",
      "headings": [
        "How do you calculate robot cycle time?",
        "A useful cycle model exposes every contributor and its evidence.",
        "Build the cycle from an agreed sequence and named assumptions.",
        "Keep ideal cycle and real operating time separate.",
        "Build an indicative robot-cell cycle budget.",
        "What evidence should replace estimates as the project develops?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robot simulation and offline programming",
        "Robot automation ROI calculator",
        "Automation feasibility study",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Is robot cycle time the same as production output?",
          "answer": "No. Robot cycle time describes the task sequence under defined conditions. Sustained output also depends on upstream supply, downstream capacity, machine availability, changeovers, replenishment, faults and recovery."
        },
        {
          "question": "How much cycle margin should be allowed?",
          "answer": "There is no universal percentage. Early models often include an explicit engineering allowance, but the final margin should reflect uncertainty, product variation, process stability and the consequence of missing the rate."
        },
        {
          "question": "Can movements occur at the same time as a machine cycle?",
          "answer": "Sometimes. A robot may prepare the next product or complete an external move while a machine operates, but access, signals and safety conditions determine what can genuinely run in parallel."
        },
        {
          "question": "Does the fastest robot produce the fastest cell?",
          "answer": "Not necessarily. Tooling, product presentation, machine dwell, path access and recovery can dominate the cycle. The correct platform is the one that supports the complete sustainable sequence."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 890,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/robot-gripper-types/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/robot-gripper-types/",
      "title": "Robot Gripper Types Guide | Vacuum, Mechanical & Magnetic EOAT",
      "description": "Compare robot gripper types including vacuum, mechanical, magnetic, soft, needle and hybrid end effectors, with product, cycle, safety and changeover selection factors.",
      "h1": "Robot gripper types: choose the tool around the product and failure mode.",
      "directAnswer": "Common robot gripper types include vacuum cups and foam tools, mechanical parallel or angular grippers, magnetic grippers, internal expanding tools, needle grippers, soft or adaptive grippers and hybrid tools that combine methods. The correct choice depends on product geometry, surface, porosity, weight, centre of gravity, presentation, required orientation, cycle, environment and the consequence of a failed grip.",
      "headings": [
        "What are the main types of robot gripper?",
        "Gripper selection determines whether the robot can perform the task reliably.",
        "Select the grip principle from product behaviour, not familiarity.",
        "Where common gripping methods tend to fit.",
        "What information supports a gripper trial?",
        "Frequently asked questions",
        "Continue planning the project.",
        "End-of-arm tooling design",
        "Payload, reach and repeatability",
        "Robotic bin picking",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "When should vacuum gripping be used?",
          "answer": "Vacuum is often suitable for reasonably smooth, accessible surfaces and can handle cartons, sheets, containers and many packaged products. Porosity, leakage, surface curvature and contamination must be tested."
        },
        {
          "question": "What is the advantage of a mechanical gripper?",
          "answer": "Mechanical jaws can provide positive retention and measurable position, especially on rigid components. Jaw access, part tolerance, pinch hazards and surface marking must be considered."
        },
        {
          "question": "Can one gripper handle several products?",
          "answer": "Yes, using compliance, adjustable jaws, zoned vacuum, interchangeable fingers or automatic tool change. Flexibility normally adds mass, complexity and validation work."
        },
        {
          "question": "How is grip loss detected?",
          "answer": "Vacuum switches, jaw position, pressure, force, proximity sensing, weight or vision can provide evidence. The method should match the product and consequence of a dropped or missing part."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 793,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/robot-payload-reach-repeatability/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/robot-payload-reach-repeatability/",
      "title": "Robot Payload, Reach & Repeatability Explained",
      "description": "Understand industrial robot payload, reach, work envelope, wrist moments, repeatability and cycle time before selecting a platform for automation.",
      "h1": "Robot payload, reach and repeatability—what the figures really mean.",
      "directAnswer": "No single specification is enough. Payload, wrist moments, work envelope, repeatability, speed, mounting and protection must all suit the application. The robot also has to achieve the required path with the real tool and surrounding equipment.",
      "headings": [
        "Which robot specification matters most?",
        "Payload includes everything moving on the robot wrist.",
        "Nominal reach is not the same as usable reach.",
        "Repeatability supports consistency but does not guarantee process capability.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Complete robot cell integration",
        "Robot selection matrix",
        "Discuss your application",
        "Robot cycle-time calculator",
        "Reach and cycle simulation",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Does a 10 kg robot carry a 10 kg product?",
          "answer": "Not necessarily. The gripper and all wrist-mounted equipment count toward payload, and the load centre and wrist moments must remain within limits."
        },
        {
          "question": "What does robot reach measure?",
          "answer": "Reach usually describes a maximum radial distance from the robot base to a reference point on the wrist. It does not prove that every orientation or path inside that radius is achievable."
        },
        {
          "question": "What does ±0.05 mm repeatability mean?",
          "answer": "It indicates consistent return performance under the manufacturer’s test conditions. It does not mean every finished product dimension or absolute position will be held to that tolerance."
        },
        {
          "question": "How is robot cell cycle time calculated?",
          "answer": "Add product presentation, robot motion, gripping, confirmation, process time, machine handshakes, release and any waiting. The calculation should use the real payload and safe operating speeds."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 668,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/robot-selection-matrix/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/robot-selection-matrix/",
      "title": "Industrial Robot Selection Matrix | 20 Robot & Cobot Platforms",
      "description": "Compare 20 reference robot, cobot, SCARA, delta, palletising and injection-moulding platforms by payload, reach, machine range and applications.",
      "h1": "Industrial robot and cobot selection matrix.",
      "directAnswer": "Use it as an initial comparison, not a final technical offer. Filter by application and published reference data, then validate the complete payload, usable work envelope, duty, protection, safety and integration requirements with an engineer.",
      "headings": [
        "How should the robot selection matrix be used?",
        "Start with architecture and application fit.",
        "A table cannot verify the motion or safe cell design.",
        "Compare robot families and published data.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Complete robot cell integration",
        "Robot selection matrix",
        "Discuss your application",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Does the matrix show final robot recommendations?",
          "answer": "No. It provides reference comparisons. The final platform is selected after checking the complete application, tooling, work envelope, cycle, environment, safety and interfaces."
        },
        {
          "question": "Are published cycle rates guaranteed?",
          "answer": "No. Published robot or unloaded rates are not the same as finished-cell output. Actual rate includes product presentation, gripping, process time, machine signals and safe motion."
        },
        {
          "question": "Can the data be downloaded?",
          "answer": "Yes. The site includes machine-readable JSON and CSV versions of the selection matrix for internal comparison and AI-assisted research."
        },
        {
          "question": "Why are injection-moulding robots compared by machine range?",
          "answer": "Cartesian take-out manipulators are commonly sized against the moulding-machine range and required strokes, but platen dimensions, mounting, extraction path, part-release sequence and downstream placement must also be checked."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 1002,
      "lastModified": "2026-09-01"
    },
    {
      "file": "guides/types-of-industrial-robots/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/guides/types-of-industrial-robots/",
      "title": "Types of Industrial Robots | Six-Axis, SCARA, Delta & Cobots",
      "description": "A practical guide to six-axis, SCARA, parallel/delta, palletising, collaborative and Cartesian robots, with typical applications and selection factors.",
      "h1": "Types of industrial robots and where each architecture fits.",
      "directAnswer": "Common architectures include six-axis articulated robots, four-axis palletising robots, SCARA robots, parallel or delta robots, Cartesian robots and collaborative robots. Each has a different work envelope and strengths for handling, assembly, palletising, machine tending or processing.",
      "headings": [
        "What are the main types of industrial robot?",
        "Six-axis robots provide flexible orientation and approach angles.",
        "SCARA and delta robots excel in suitable planar and conveyor tasks.",
        "Palletising and Cartesian robots optimise defined movement patterns.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Complete robot cell integration",
        "Robot selection matrix",
        "Discuss your application",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Which robot is fastest for pick and place?",
          "answer": "Parallel/delta and SCARA robots are often strong candidates for high-speed light-product handling, but product presentation, vision, travel distance, orientation and downstream timing determine the complete cycle."
        },
        {
          "question": "Why use a six-axis robot?",
          "answer": "Six axes provide flexible orientation and approach angles, making the architecture useful for machine tending, welding, handling and tasks where the product must be reoriented in space."
        },
        {
          "question": "What type of robot is used for palletising?",
          "answer": "Four-axis palletising robots are common because they combine reach, payload and efficient stacking motion. Six-axis robots and cobots can also palletise where their payload, reach and cycle fit."
        },
        {
          "question": "What is a Cartesian robot?",
          "answer": "A Cartesian robot moves along linear X, Y and Z axes. Injection-moulding take-out manipulators are a common example and may add wrist axes for orientation."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 629,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/",
      "title": "Industrial Robotics by Industry UK | 11 Manufacturing Sectors",
      "description": "Explore robot and cobot automation for 11 UK sectors including food, plastics, logistics, automotive, metal fabrication, electronics, pharma and cosmetics.",
      "h1": "Robotics engineered for real manufacturing environments.",
      "directAnswer": "Industry affects product-contact materials, hygiene, dust or vapour controls, surface protection, traceability, quality records, changeover, environmental protection and acceptable operator interaction. A robot cell must be engineered for the actual sector and process rather than copied from a generic layout.",
      "headings": [
        "How does the customer’s industry change robot-cell design?",
        "Find application guidance for your production environment.",
        "Robotics for food, beverage and packaged-product production",
        "Flexible robot automation for real manufacturing processes",
        "Robotics for moulded-part take-out and downstream automation",
        "Robotic handling between production, pallets and warehouse flow",
        "Robotics for repeatable component handling and production processes",
        "Robotic handling for bags, containers and industrial products",
        "Metal fabrication robotics",
        "Electronics and electrical manufacturing robotics",
        "Pharmaceutical and medical-device robotics",
        "Cosmetics and personal-care robotics",
        "Packaging and fulfilment robotics",
        "Discuss the process, product and operating environment."
      ],
      "faqs": [],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 399,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/automotive-components/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/automotive-components/",
      "title": "Automotive Component Robotics UK | Handling, Welding & Tending",
      "description": "Robot automation for automotive and component manufacturing: heavy handling, machine tending, welding, assembly, inspection and moulded-part take-out.",
      "h1": "Robotics for repeatable component handling and production processes.",
      "directAnswer": "Typical applications include machine tending, welding, component transfer, assembly, moulded-part take-out, grinding, polishing and inspection. The cell is selected around part mass, geometry, process forces, fixtures and takt time.",
      "headings": [
        "Where are robots used in automotive component production?",
        "Automation must reflect the real operating environment.",
        "Robot and cobot systems to evaluate.",
        "Information that improves the first engineering review.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Explore robot applications",
        "UK robotics integrator",
        "Robot automation ROI",
        "Metal fabrication robotics",
        "Robotic quality inspection",
        "Discuss an automation opportunity in your production process."
      ],
      "faqs": [
        {
          "question": "Can a robot handle large automotive parts?",
          "answer": "Yes, if payload, centre of gravity, wrist moments, reach and fixtures are suitable. Heavy-payload six-axis robots cover many component-handling tasks."
        },
        {
          "question": "Can one robot load multiple processes?",
          "answer": "Potentially. Layout, machine cycles, buffers and fault handling must be modelled to ensure one process does not block the others."
        },
        {
          "question": "Can robots perform grinding or polishing?",
          "answer": "Yes, with suitable process tooling, force control, extraction, guarding and part consistency. Trials help establish finish and consumable life."
        },
        {
          "question": "Can the cell record component data?",
          "answer": "Robot and PLC controls can exchange identifiers and process results with traceability systems where interfaces and data requirements are defined."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 526,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/chemicals-industrial-products/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/chemicals-industrial-products/",
      "title": "Chemical & Industrial Product Robotics UK | Handling & Palletising",
      "description": "Robot automation for chemical and industrial products: bag, container and drum handling, palletising, machine loading and controlled-environment integration.",
      "h1": "Robotic handling for bags, containers and industrial products.",
      "directAnswer": "Robots can handle packaged chemical and industrial products where the robot, tooling, materials, environment and safety controls are suitable. The substance, packaging, dust, vapour and area classification must be reviewed before equipment selection.",
      "headings": [
        "Can robots handle chemical products?",
        "Automation must reflect the real operating environment.",
        "Robot and cobot systems to evaluate.",
        "Information that improves the first engineering review.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Explore robot applications",
        "UK robotics integrator",
        "Robot automation ROI",
        "Discuss an automation opportunity in your production process."
      ],
      "faqs": [
        {
          "question": "Can a standard robot be used in a hazardous area?",
          "answer": "Not automatically. Equipment selection must follow the actual area classification, material hazards and applicable requirements. Purpose-designed protected equipment may be necessary."
        },
        {
          "question": "Can robots palletise bags?",
          "answer": "Yes, with tooling developed for bag material, fill behaviour, sealing, mass and required stack pattern. Representative bag trials are often valuable."
        },
        {
          "question": "How are leaking packages handled?",
          "answer": "The cell should define detection, stop, isolation and safe recovery procedures appropriate to the substance and site controls."
        },
        {
          "question": "Can tooling resist corrosive products?",
          "answer": "Materials, coatings, seals and cleaning methods can be selected for known exposure, but compatibility must be confirmed from product and safety data."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 513,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/cosmetics-personal-care/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/cosmetics-personal-care/",
      "title": "Cosmetics & Personal Care Robotics UK | Packing, Handling & Inspection",
      "description": "Robot and cobot systems for cosmetics and personal-care production: container handling, component placement, packing, case loading, inspection and palletising.",
      "h1": "Robotics for cosmetics and personal-care production and packaging.",
      "directAnswer": "Robots can load containers or components, orient products, assemble packs, place items into trays or gift sets, inspect presentation, case pack and palletise. The cell must account for cosmetic surfaces, product leakage, container stability, format variation, hygiene and the speed of surrounding packaging machinery.",
      "headings": [
        "How can robots automate cosmetics production?",
        "Presentation quality and format flexibility are central to cosmetics automation.",
        "Engineer around actual packs, not nominal container dimensions.",
        "Robotics can connect several packaging operations.",
        "What should be supplied for a cosmetics automation review?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robotic case packing",
        "Robotic tray and gift-set loading",
        "Robotic quality inspection",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can one robot handle bottles, jars and tubes?",
          "answer": "Potentially, using adjustable, compliant or exchangeable tooling. The size range, stability, gripping surfaces and rate determine practical flexibility."
        },
        {
          "question": "Can vision inspect labels and pack presentation?",
          "answer": "Vision can check suitable visible features, orientation and presence. Defect definition, lighting and product variation must be validated with representative samples."
        },
        {
          "question": "Can robots assemble gift sets or mixed packs?",
          "answer": "Yes, where each component can be presented, identified and gripped reliably and the required pack sequence fits the cycle."
        },
        {
          "question": "How are leaking or unstable products handled?",
          "answer": "The design can include product detection, reject routing, drip management, washable components and fault procedures appropriate to the product and process risk."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 661,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/electronics-electrical/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/electronics-electrical/",
      "title": "Electronics Manufacturing Robotics UK | Assembly & Inspection",
      "description": "Robotics for electronics and electrical manufacturing: precision pick and place, assembly, dispensing, machine tending, vision inspection, testing and tray handling.",
      "h1": "Robotics for electronics, electrical components and precision assembly.",
      "directAnswer": "Robots can pick and place components, load fixtures and test equipment, dispense adhesive or sealant, assemble parts, handle trays, present products to cameras and route passed or failed units. SCARA, parallel, compact six-axis and collaborative robots may suit different payload, speed and orientation requirements.",
      "headings": [
        "How are robots used in electronics manufacturing?",
        "Precision automation depends on presentation and process control.",
        "Engineer around delicate parts, connectors and product variation.",
        "Architecture follows motion, speed and product access.",
        "What information supports an electronics automation assessment?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robotic assembly",
        "Robotic dispensing and gluing",
        "Robotic quality inspection",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Is a SCARA or six-axis robot better for electronics assembly?",
          "answer": "SCARA robots suit fast planar moves and vertical insertion, while six-axis robots provide more orientation freedom and access. The process geometry and cycle determine the better architecture."
        },
        {
          "question": "Can robots handle flexible cables and wires?",
          "answer": "Potentially, but flexible components require specialised gripping, sensing, presentation and trials because their shape is not deterministic."
        },
        {
          "question": "How are delicate components protected?",
          "answer": "Tool contact, grip force, acceleration, ESD materials, fixtures and process limits are designed around the component and verified through representative trials."
        },
        {
          "question": "Can inspection and assembly be combined?",
          "answer": "Yes. The robot can present parts to fixed cameras or carry a sensor, with results used to permit assembly, route failures or create records."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 694,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/food-and-drink/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/food-and-drink/",
      "title": "Food & Drink Robotics UK | Packaging, Handling & Palletising",
      "description": "Robot and cobot automation for UK food and drink production: pick and place, packing, palletising, machine loading and vision-guided handling.",
      "h1": "Robotics for food, beverage and packaged-product production.",
      "directAnswer": "Common applications include high-speed pick and place, tray or case loading, product collation, machine loading, inspection, palletising and depalletising. The robot and tooling must suit the hygiene zone, product contact and cleaning regime.",
      "headings": [
        "Where are robots used in food and drink manufacturing?",
        "Automation must reflect the real operating environment.",
        "Robot and cobot systems to evaluate.",
        "Information that improves the first engineering review.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Explore robot applications",
        "UK robotics integrator",
        "Robot automation ROI",
        "Robotic case packing",
        "Packaging and fulfilment robotics",
        "Discuss an automation opportunity in your production process."
      ],
      "faqs": [
        {
          "question": "Can robots handle unpackaged food?",
          "answer": "Potentially, but material selection, cleanability, food-contact requirements, product damage and hygiene-zone design must be addressed specifically."
        },
        {
          "question": "Can a robot palletise food and drink cases?",
          "answer": "Yes. The gripper, payload, pattern, stack stability, required rate and pallet handling are engineered around the case or pack."
        },
        {
          "question": "Can vision identify mixed food packs?",
          "answer": "Vision can locate, classify or inspect suitable packs where lighting, print, surface and presentation support a reliable decision."
        },
        {
          "question": "How are washdown requirements handled?",
          "answer": "Robot and tooling protection, materials, drainage, cable routing and cleaning access must be selected for the required cleaning regime. Not every robot platform is suitable."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 546,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/general-manufacturing/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/general-manufacturing/",
      "title": "Manufacturing Robotics UK | Robot & Cobot Automation",
      "description": "Industrial robot and cobot automation for UK manufacturers: machine tending, assembly, handling, inspection, welding, packaging and palletising.",
      "h1": "Flexible robot automation for real manufacturing processes.",
      "directAnswer": "Good candidates are repetitive, definable tasks with stable product inputs and measurable outcomes—such as loading, unloading, transfer, palletising, welding, assembly, inspection and packing. Feasibility depends on product variation, cycle, access and interfaces.",
      "headings": [
        "Which manufacturing tasks are suitable for robots?",
        "Automation must reflect the real operating environment.",
        "Robot and cobot systems to evaluate.",
        "Information that improves the first engineering review.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Explore robot applications",
        "UK robotics integrator",
        "Robot automation ROI",
        "Metal fabrication robotics",
        "Electronics manufacturing robotics",
        "Discuss an automation opportunity in your production process."
      ],
      "faqs": [
        {
          "question": "Is robot automation only suitable for high volumes?",
          "answer": "No. Lower-volume applications can be viable where changeover is manageable, labour or ergonomic benefits are strong and the process is repeatable. The business case must use real demand data."
        },
        {
          "question": "Can robots be added to old machines?",
          "answer": "Often, provided physical access, controls, safety and mechanical interfaces can be established. Existing-equipment condition and documentation should be reviewed."
        },
        {
          "question": "Can one robot run several products?",
          "answer": "Yes, within a defined product family. Tooling, fixtures, recipes and presentation must support the required variation."
        },
        {
          "question": "Where should a first automation project start?",
          "answer": "Choose a stable, repetitive process with clear inputs, measurable output and manageable interfaces. Avoid combining too many unknowns in the first project."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 542,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/logistics-warehousing/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/logistics-warehousing/",
      "title": "Warehouse & Logistics Robotics UK | Palletising & Handling",
      "description": "Robot automation for logistics and warehouse operations: palletising, depalletising, case handling, sorting, conveyor transfer and end-of-line integration.",
      "h1": "Robotic handling between production, pallets and warehouse flow.",
      "directAnswer": "Fixed industrial robots can palletise, depalletise, sort, transfer and load products within a defined cell. They are especially useful where packaged products move repeatedly between conveyors, pallets and downstream warehouse processes.",
      "headings": [
        "Which warehouse tasks can industrial robots automate?",
        "Automation must reflect the real operating environment.",
        "Robot and cobot systems to evaluate.",
        "Information that improves the first engineering review.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Explore robot applications",
        "UK robotics integrator",
        "Robot automation ROI",
        "Discuss an automation opportunity in your production process."
      ],
      "faqs": [
        {
          "question": "Can one robot palletise several production lines?",
          "answer": "Potentially, if combined cycle, routing, accumulation and fault isolation allow. Simulation or timing analysis should confirm capacity."
        },
        {
          "question": "Can a robot handle mixed cases?",
          "answer": "Yes, when product identity, dimensions, weights and pallet rules are known. Vision or barcode data may support routing and pattern selection."
        },
        {
          "question": "What happens when a pallet is full?",
          "answer": "The system can signal or automatically transfer the full pallet, introduce an empty pallet and coordinate wrapping, strapping or labelling equipment."
        },
        {
          "question": "Can robots unload unstable pallets?",
          "answer": "Vision and sensing can compensate for some variation, but severely damaged or unsafe loads require a defined exception and operator-recovery process."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 506,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/metal-fabrication/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/metal-fabrication/",
      "title": "Robotics for Metal Fabrication UK | Welding, Tending & Finishing",
      "description": "Industrial robot systems for UK metal fabrication: welding, press and CNC tending, grinding, polishing, deburring, handling, inspection and palletising.",
      "h1": "Robotics for metal fabrication, welding, machine tending and finishing.",
      "directAnswer": "Industrial robots can support arc or spot welding, CNC and press tending, part transfer, grinding, sanding, polishing, deburring, inspection and palletising. The right architecture depends on component weight, fixture repeatability, process force, access, cycle, surface quality, fume or dust controls and the surrounding production sequence.",
      "headings": [
        "Where are robots used in metal fabrication?",
        "Metalworking cells must manage process forces and harsh conditions.",
        "Select automation opportunities from production repeatability and constraint.",
        "Start with the task that limits flow, quality or labour availability.",
        "What should be supplied for a metal-fabrication automation review?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robotic welding",
        "Robotic grinding and polishing",
        "Robotic press tending",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can one robot perform both handling and finishing?",
          "answer": "Potentially, through tool change or combined tooling, but cycle, contamination, payload, stiffness and safety must be assessed. Separate robots may be better where processes conflict."
        },
        {
          "question": "Which robots suit heavy metal components?",
          "answer": "Six-axis robots in medium and heavy payload classes provide orientation freedom, but the final selection must include tool mass, centre of gravity, wrist moments, reach and process forces."
        },
        {
          "question": "Can robots load existing CNC machines and presses?",
          "answer": "Often, subject to access, controls, guarding, machine condition and the feasibility of reliable part presentation and recovery."
        },
        {
          "question": "How is finishing quality maintained as abrasives wear?",
          "answer": "The cell can use compliant tooling, force control, wear compensation, process monitoring and defined consumable-change limits, validated against accepted finish samples."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 710,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/packaging-fulfilment/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/packaging-fulfilment/",
      "title": "Packaging & Fulfilment Robotics UK | Pick, Pack, Sort & Palletise",
      "description": "Robotics for packaging and fulfilment: vision-guided picking, order collation, tray and case loading, sorting, depalletising and end-of-line palletising.",
      "h1": "Robotics for packaging, fulfilment, sorting and end-of-line flow.",
      "directAnswer": "Robots can pick products from conveyors or containers, orient and sort them, build orders or collations, load trays and cases, feed packaging machines, depalletise inbound loads and palletise completed packs. The complete design must balance robot cycle, product variability, order logic, buffers and surrounding material flow.",
      "headings": [
        "Where do robots fit in packaging and fulfilment?",
        "Packaging robotics succeeds when product flow is controlled end to end.",
        "Define the unit of handling and the information that drives each move.",
        "The robot must be connected to packaging and information flow.",
        "What information supports a fulfilment-robotics concept?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robotic case packing",
        "Robotic bin picking",
        "Robotic depalletising",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can one robot handle many SKUs?",
          "answer": "Potentially, if products fall within a validated gripping, identification and motion range. Very broad variation may require multiple tools or product-routing rules."
        },
        {
          "question": "When is 3D bin picking useful in fulfilment?",
          "answer": "It can suit random items in totes or bins where mechanical presentation is impractical, subject to product visibility, grasp access, entanglement and cycle requirements."
        },
        {
          "question": "Can case packing and palletising be combined?",
          "answer": "Yes. A coordinated line can pack products into cases and then palletise completed cases, with buffers and controls sized for the combined duty."
        },
        {
          "question": "How are wrong or damaged products prevented from entering an order?",
          "answer": "Identification and inspection can be integrated with order logic, but data quality, sensor coverage, reject confirmation and exception procedures must be designed explicitly."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 704,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/pharmaceutical-medical-devices/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/pharmaceutical-medical-devices/",
      "title": "Pharmaceutical & Medical Device Robotics UK | Handling & Packaging",
      "description": "Robot and cobot systems for pharmaceutical and medical-device manufacturing, including handling, assembly, tray loading, packaging, inspection and controlled production records.",
      "h1": "Robotics for pharmaceutical and medical-device handling, assembly and packaging.",
      "directAnswer": "Robots can load trays and nests, handle containers or devices, assemble components, present products for inspection, load packaging equipment, case pack and palletise. Suitability depends on the product-contact strategy, environment, cleaning, documentation, traceability and validation requirements of the specific process.",
      "headings": [
        "Where can robots support pharmaceutical and medical-device production?",
        "Regulatory context changes how the cell must be designed and evidenced.",
        "Define product-contact, environment and quality evidence early.",
        "Separate machine capability from process validation claims.",
        "What should be included in the initial project brief?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robotic tray loading",
        "Robotic packaging",
        "Robotic quality inspection",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can a standard industrial robot be used in a controlled environment?",
          "answer": "It depends on the environmental classification, robot construction, lubricants, particle or cleaning requirements and how the robot is separated from product. Suitability must be confirmed for the actual area."
        },
        {
          "question": "Can robots handle syringes, vials or medical devices?",
          "answer": "Potentially, with appropriate product presentation, gentle tooling, materials, inspection and trials. Fragility and contamination requirements must be defined."
        },
        {
          "question": "Does the integrator perform customer validation?",
          "answer": "The responsibilities should be agreed. The integrator can provide specified design and test evidence, while the regulated manufacturer retains its own quality-system and process-validation responsibilities."
        },
        {
          "question": "Can the robot system record production and inspection results?",
          "answer": "Yes, where required interfaces and data architecture are defined. The scope should address record ownership, retention, security, user access and response to communication loss."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 689,
      "lastModified": "2026-09-01"
    },
    {
      "file": "industries/plastics-injection-moulding/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/industries/plastics-injection-moulding/",
      "title": "Plastics & Injection Moulding Automation UK | Robot Take-Out",
      "description": "Robot automation for plastics and injection moulding: Cartesian take-out, sprue handling, insert loading, trimming, inspection and packing.",
      "h1": "Robotics for moulded-part take-out and downstream automation.",
      "directAnswer": "A take-out robot can remove finished parts and sprues, place inserts, separate components, orient parts and transfer them to conveyors, inspection, trimming, assembly or packing. Machine interface and mould sequence are critical.",
      "headings": [
        "What can an injection-moulding robot automate?",
        "Automation must reflect the real operating environment.",
        "Robot and cobot systems to evaluate.",
        "Information that improves the first engineering review.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "Explore robot applications",
        "UK robotics integrator",
        "Robot automation ROI",
        "Discuss an automation opportunity in your production process."
      ],
      "faqs": [
        {
          "question": "Can a take-out robot reduce cycle time?",
          "answer": "It may reduce manual delay and enable repeatable extraction, but the moulding process, ejector sequence, gripping and safe motion determine actual cycle."
        },
        {
          "question": "Can the robot handle hot moulded parts?",
          "answer": "Potentially, with suitable materials, grip design, cooling strategy and process timing. Product deformation and marking must be tested."
        },
        {
          "question": "Can the cell separate sprues automatically?",
          "answer": "Yes. Dual-arm tooling, separate placements, cutters or downstream separation can be integrated depending on mould and product design."
        },
        {
          "question": "Can moulded parts go directly to packing?",
          "answer": "Yes, where cooling, inspection, orientation and product quality allow. The robot can place onto conveyors, trays, fixtures or packaging equipment."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 514,
      "lastModified": "2026-09-01"
    },
    {
      "file": "integration/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/integration/",
      "title": "Robot Cell Integration UK | Design, Build & Commissioning",
      "description": "Complete robot cell integration from feasibility and trials to tooling, controls, safety, build, factory testing, installation, commissioning and training.",
      "h1": "One engineering route from production problem to working robot cell.",
      "directAnswer": "Robot cell integration is the engineering work that combines the robot with tooling, fixtures, product flow, controls, safety, vision and surrounding machinery, then installs and proves the finished system against agreed production requirements.",
      "headings": [
        "What is robot cell integration?",
        "Resolve technical risk in the right order.",
        "Define",
        "Prove",
        "Engineer",
        "Build",
        "Install",
        "Handover",
        "Every part of the complete cell.",
        "A robotics integrator for complete production cells",
        "Robot grippers engineered around the real product",
        "Safety engineered into the complete robot cell",
        "Robot, PLC and machine controls designed as one system",
        "Vision-guided robots that can locate, inspect and sort",
        "From factory test to stable production handover",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 405,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robotics-integrator-oxfordshire/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robotics-integrator-oxfordshire/",
      "title": "Robotics Integrator Oxfordshire | Robot & Cobot Cells from Thame",
      "description": "Oxfordshire robotics integrator based in Thame, engineering industrial robot and cobot cells with tooling, controls, vision, guarding, installation and support.",
      "h1": "Robotics integration in Oxfordshire, engineered from Thame.",
      "directAnswer": "A robotics integrator turns a production requirement into a complete working cell by coordinating the robot, end-of-arm tooling, product presentation, fixtures, vision, controls, machine interfaces, guarding, installation, commissioning and training. Oxford Industrial Automation is based in Thame, Oxfordshire, with direct telephone and project-enquiry routes for UK manufacturers.",
      "headings": [
        "What does a local robotics integrator provide?",
        "Local engineering access with complete-cell responsibility.",
        "Start with the production problem and measurable result.",
        "Oxford Industrial Automation, Thame, Oxfordshire.",
        "One automation task can cross several specialist disciplines.",
        "What to send before an initial application review.",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robotics integrator UK",
        "Automation feasibility study",
        "Discuss an Oxfordshire automation project",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Where is Oxford Industrial Automation based?",
          "answer": "The business operates from Unit 5A, Jefferson Way, Thame, Oxfordshire OX9 3SZ and supports industrial automation projects for manufacturers across the UK."
        },
        {
          "question": "Can you visit our factory to review an automation task?",
          "answer": "A site survey can be arranged where it is useful for understanding access, equipment interfaces, floor space, operating tasks and project constraints."
        },
        {
          "question": "Do you supply only the robot arm?",
          "answer": "The website is focused on complete robot and cobot cells, including tooling, material flow, controls, vision, safeguarding, installation, commissioning and training as required by the project."
        },
        {
          "question": "Can several Oxford Science Group companies support one project?",
          "answer": "Yes, where the requirement also includes packaging machinery, machine guarding, component feeding, vision inspection or traceability. Responsibilities and interfaces should remain clearly defined."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 799,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robotics-integrator/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robotics-integrator/",
      "title": "Robotics Integrator UK | Complete Robot & Cobot Cells",
      "description": "UK robotics integrator for complete industrial robot and cobot cells: feasibility, tooling, controls, vision, safeguarding, installation and commissioning.",
      "h1": "A robotics integrator for complete production cells.",
      "directAnswer": "A robotics integrator designs and delivers the complete automation cell around the robot. That includes application engineering, end-of-arm tooling, controls, safety, line interfaces, programming, installation, commissioning, documentation and training—not simply supplying a robot arm.",
      "headings": [
        "What does a robotics integrator do?",
        "Start with the production problem, not the robot brand.",
        "The robot is one component of the finished automation system.",
        "A structured route from feasibility to production handover.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "How to choose an industrial robot",
        "Robot automation cost",
        "Discuss your application",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "What information should I send to a robotics integrator?",
          "answer": "Send product dimensions and weights, photographs or video of the current process, required output, available footprint, product variants, upstream and downstream equipment, utilities and any known safety or environmental constraints."
        },
        {
          "question": "Can an integrator automate existing machinery?",
          "answer": "Often yes. The feasibility review must confirm physical access, machine signals, guarding, cycle timing, part presentation and responsibility for any modifications to the existing equipment."
        },
        {
          "question": "Do I choose the robot before requesting a quotation?",
          "answer": "No. Starting with the process usually produces a better solution. The integrator should select or compare platforms after the payload, reach, cycle, tooling, safety and interface requirements are understood."
        },
        {
          "question": "Can you integrate industrial robots and cobots?",
          "answer": "Yes. The appropriate architecture depends on the risk assessment, required speed, payload, reach, footprint and operator interaction. A cobot arm does not automatically make an application collaborative or guard-free."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 694,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/",
      "title": "Industrial Robots & Cobots UK | Compare 20 Platforms",
      "description": "Compare 20 industrial robots, cobots, SCARA, delta, palletising and injection-moulding platforms by payload, reach, machine range and application fit.",
      "h1": "Industrial robots and cobots for UK automation projects.",
      "directAnswer": "Start with the production task and eliminate platforms that cannot meet the complete payload, usable work envelope, cycle, environment or safety requirements. Then compare tooling, footprint, interfaces, changeover and whole-cell performance.",
      "headings": [
        "How do I choose between the robot platforms?",
        "Flexible Small Pick-Up Robot",
        "Six-Axis Collaborative Robot",
        "Convenient Six-Axis Welding Robot",
        "Six-Axis Industrial Spraying Robot",
        "High-Precision SCARA Robot",
        "Four-Axis Parallel Sorting Robot",
        "Five-Axis Fast Parallel Robot",
        "65 kg Long-Reach Palletising Robot",
        "80 kg Four-Axis Palletising Robot",
        "160 kg Multifunctional Palletising Robot",
        "Professional Six-Axis General Robot",
        "170 kg Six-Axis Automotive Robot",
        "300 kg Ultra-Long-Span Six-Axis Robot",
        "Injection-Moulding Cartesian Servo Robot",
        "Fast-Action Servo Industrial Manipulator",
        "Plastic Injection-Moulding Machine Robot",
        "AC Servo Motor Driven Manipulator",
        "Four-Axis Injection Manipulator Arm",
        "Automatic Take-Out Servo Manipulator",
        "Large Five-Axis Servo Robot",
        "Published data narrows the search; application engineering makes the decision.",
        "Continue planning your automation project",
        "Industrial robots vs cobots",
        "Robot selection matrix",
        "How to choose a robot",
        "Let us shortlist the robot around your product and cycle."
      ],
      "faqs": [],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/hero/robotics-production-hero.png",
      "wordCount": 965,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/160-kg-multifunctional-palletising-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/160-kg-multifunctional-palletising-robot/",
      "title": "160 kg Palletising Robot UK | BRTIRPZ3116B",
      "description": "BRTIRPZ3116B heavy-duty palletiser reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "160 kg Multifunctional Palletising Robot",
      "directAnswer": "",
      "headings": [
        "160 kg Multifunctional Palletising Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robotic palletising",
        "Cobot palletising",
        "Vision-guided sorting",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRPZ3116B?",
          "answer": "The reference guide lists applications including heavy palletising of bags, boxes and bottles, large-work-envelope material handling, food packaging and logistics stacking. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 160 kg, and a published reach or span of 3,100 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/160-kg-multifunctional-palletising-robot.png",
      "wordCount": 684,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/170-kg-six-axis-automotive-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/170-kg-six-axis-automotive-robot/",
      "title": "170 kg Six-Axis Industrial Robot UK | BRTIRUS2917B",
      "description": "BRTIRUS2917B heavy six-axis robot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "170 kg Six-Axis Automotive Robot",
      "directAnswer": "",
      "headings": [
        "170 kg Six-Axis Automotive Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robot machine tending",
        "CNC machine tending",
        "Injection-moulding automation",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRUS2917B?",
          "answer": "The reference guide lists applications including machine-tool and injection-moulding loading/unloading, metal processing, bending, shearing and transfer, grinding and polishing cells. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 170 kg, and a published reach or span of 3,168 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/170-kg-six-axis-automotive-robot.png",
      "wordCount": 692,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/300-kg-ultra-long-span-six-axis-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/300-kg-ultra-long-span-six-axis-robot/",
      "title": "300 kg Six-Axis Industrial Robot UK | BRTIRUS2830B",
      "description": "BRTIRUS2830B very heavy six-axis robot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "300 kg Ultra-Long-Span Six-Axis Robot",
      "directAnswer": "",
      "headings": [
        "300 kg Ultra-Long-Span Six-Axis Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robot machine tending",
        "CNC machine tending",
        "Injection-moulding automation",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRUS2830B?",
          "answer": "The reference guide lists applications including very heavy loading/unloading and component transport, machine-tool handling of injection-moulded parts, heavy assembly and automotive applications. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 300 kg, and a published reach or span of 2,832 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/300-kg-ultra-long-span-six-axis-robot.png",
      "wordCount": 702,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/65-kg-long-reach-palletising-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/65-kg-long-reach-palletising-robot/",
      "title": "65 kg Palletising Robot UK | BRTIRPZ2465A",
      "description": "BRTIRPZ2465A column palletiser reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "65 kg Long-Reach Palletising Robot",
      "directAnswer": "",
      "headings": [
        "65 kg Long-Reach Palletising Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robotic palletising",
        "Cobot palletising",
        "Robot machine tending",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRPZ2465A?",
          "answer": "The reference guide lists applications including high-layer palletising and depalletising, handling, loading/unloading and raw-material feeding, food and beverage, chemicals and building materials. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 65 kg, and a published reach or span of 2,334 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/65-kg-long-reach-palletising-robot.png",
      "wordCount": 692,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/80-kg-four-axis-palletising-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/80-kg-four-axis-palletising-robot/",
      "title": "80 kg Palletising Robot UK | BRTIRPZ2480A",
      "description": "BRTIRPZ2480A articulated palletiser reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "80 kg Four-Axis Palletising Robot",
      "directAnswer": "",
      "headings": [
        "80 kg Four-Axis Palletising Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robotic palletising",
        "Cobot palletising",
        "How to choose an industrial robot",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRPZ2480A?",
          "answer": "The reference guide lists applications including palletising and stacking boxes, bags and containers, loading, unloading, handling and dismantling tasks, manufacturing, logistics and warehousing. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 80 kg, and a published reach or span of 2,400 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/80-kg-four-axis-palletising-robot.png",
      "wordCount": 699,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/ac-servo-motor-driven-manipulator/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/ac-servo-motor-driven-manipulator/",
      "title": "250T–480T Injection Moulding Robot | BRTNN11WSS3P/F",
      "description": "BRTNN11WSS3P/F reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete robot-cell suitability.",
      "h1": "AC Servo Motor Driven Manipulator",
      "directAnswer": "",
      "headings": [
        "AC Servo Motor Driven Manipulator",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robotic palletising",
        "Cobot palletising",
        "Robot machine tending",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTNN11WSS3P/F?",
          "answer": "The reference guide lists applications including injection-moulded-part take-out and conveyor placement, assembly-line component handling, packaging and palletising. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published machine range of 250T–480T, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/ac-servo-motor-driven-manipulator.png",
      "wordCount": 673,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/automatic-take-out-servo-manipulator/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/automatic-take-out-servo-manipulator/",
      "title": "600T–1,300T Injection Moulding Robot | BRTN17WSS5PC",
      "description": "BRTN17WSS5PC reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete robot-cell suitability.",
      "h1": "Automatic Take-Out Servo Manipulator",
      "directAnswer": "",
      "headings": [
        "Automatic Take-Out Servo Manipulator",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robot machine tending",
        "CNC machine tending",
        "Injection-moulding automation",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTN17WSS5PC?",
          "answer": "The reference guide lists applications including long automotive and appliance components, washing-machine and household-appliance parts, optical housings, lampshades and large decorative parts. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published machine range of 600T–1,300T, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/automatic-take-out-servo-manipulator.png",
      "wordCount": 672,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/convenient-six-axis-welding-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/convenient-six-axis-welding-robot/",
      "title": "6 kg Welding Robot UK | BRTIRWD1506A",
      "description": "BRTIRWD1506A welding robot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "Convenient Six-Axis Welding Robot",
      "directAnswer": "",
      "headings": [
        "Convenient Six-Axis Welding Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robotic welding",
        "How to choose an industrial robot",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRWD1506A?",
          "answer": "The reference guide lists applications including arc welding, spot welding, laser welding. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 6 kg, and a published reach or span of 1,600 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/convenient-six-axis-welding-robot.png",
      "wordCount": 646,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/fast-action-servo-industrial-manipulator/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/fast-action-servo-industrial-manipulator/",
      "title": "160T–320T Injection Moulding Robot | BRTM09IDS5PCFC",
      "description": "BRTM09IDS5PCFC reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete robot-cell suitability.",
      "h1": "Fast-Action Servo Industrial Manipulator",
      "directAnswer": "",
      "headings": [
        "Fast-Action Servo Industrial Manipulator",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Injection-moulding automation",
        "How to choose an industrial robot",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTM09IDS5PCFC?",
          "answer": "The reference guide lists applications including finished-product and sprue/nozzle extraction, in-mould inserts and in-mould sticking, common moulded plastic products and sheets. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published machine range of 160T–320T, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/fast-action-servo-industrial-manipulator.png",
      "wordCount": 662,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/five-axis-fast-parallel-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/five-axis-fast-parallel-robot/",
      "title": "3 kg Delta / Parallel Robot UK | BRTIRPL1203A",
      "description": "BRTIRPL1203A parallel / delta robot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "Five-Axis Fast Parallel Robot",
      "directAnswer": "",
      "headings": [
        "Five-Axis Fast Parallel Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robot machine tending",
        "CNC machine tending",
        "Vision-guided sorting",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRPL1203A?",
          "answer": "The reference guide lists applications including high-speed sorting of light scattered products, horizontal gripping, flipping and vertical placement, vision-guided packaging, assembly and loading/unloading. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 3 kg, and a published reach or span of 1,200 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/five-axis-fast-parallel-robot.png",
      "wordCount": 702,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/flexible-small-pick-up-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/flexible-small-pick-up-robot/",
      "title": "5 kg Six-Axis Industrial Robot UK | BRTIRUS0805A",
      "description": "BRTIRUS0805A articulated robot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "Flexible Small Pick-Up Robot",
      "directAnswer": "",
      "headings": [
        "Flexible Small Pick-Up Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robot machine tending",
        "CNC machine tending",
        "Vision-guided sorting",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRUS0805A?",
          "answer": "The reference guide lists applications including small-part pick-up and fast positioning, compact machine tending and part transfer, light assembly and placement operations. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 5 kg, and a published reach or span of 990 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/flexible-small-pick-up-robot.png",
      "wordCount": 684,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/four-axis-injection-manipulator-arm/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/four-axis-injection-manipulator-arm/",
      "title": "470T–800T Injection Moulding Robot | BRTNN15WSS4P/F",
      "description": "BRTNN15WSS4P/F reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete robot-cell suitability.",
      "h1": "Four-Axis Injection Manipulator Arm",
      "directAnswer": "",
      "headings": [
        "Four-Axis Injection Manipulator Arm",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robot machine tending",
        "CNC machine tending",
        "Injection-moulding automation",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTNN15WSS4P/F?",
          "answer": "The reference guide lists applications including finished-product removal from larger horizontal machines, repeatable part transfer and machine unloading, orientation and placement where an extra wrist axis is useful. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published machine range of 470T–800T, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/four-axis-injection-manipulator-arm.png",
      "wordCount": 694,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/four-axis-parallel-sorting-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/four-axis-parallel-sorting-robot/",
      "title": "15 kg Delta / Parallel Robot UK | BRTIRPL1215A",
      "description": "BRTIRPL1215A parallel / delta robot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "Four-Axis Parallel Sorting Robot",
      "directAnswer": "",
      "headings": [
        "Four-Axis Parallel Sorting Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Vision-guided sorting",
        "Robotic pick and place",
        "Robotic assembly",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRPL1215A?",
          "answer": "The reference guide lists applications including vision-guided sorting and pick-and-place, assembly of scattered medium-to-large items, packaging, transfer and material handling. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 15 kg, and a published reach or span of 1,200 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/four-axis-parallel-sorting-robot.png",
      "wordCount": 688,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/high-precision-scara-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/high-precision-scara-robot/",
      "title": "3 kg SCARA Robot UK | BRTIRSC0603A",
      "description": "BRTIRSC0603A scara robot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "High-Precision SCARA Robot",
      "directAnswer": "",
      "headings": [
        "High-Precision SCARA Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Vision-guided sorting",
        "Robotic pick and place",
        "Robotic assembly",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRSC0603A?",
          "answer": "The reference guide lists applications including high-speed handling and pick-and-place, visual inspection and sorting, gluing, dispensing, assembly and stacking. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 3 kg, and a published reach or span of 600 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/high-precision-scara-robot.png",
      "wordCount": 670,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/injection-moulding-cartesian-servo-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/injection-moulding-cartesian-servo-robot/",
      "title": "50T–230T Injection Moulding Robot | BRTR08TDS5PC",
      "description": "BRTR08TDS5PC reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete robot-cell suitability.",
      "h1": "Injection-Moulding Cartesian Servo Robot",
      "directAnswer": "",
      "headings": [
        "Injection-Moulding Cartesian Servo Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Injection-moulding automation",
        "How to choose an industrial robot",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTR08TDS5PC?",
          "answer": "The reference guide lists applications including finished-product extraction, fast take-out, in-mould sticking and insert handling, special moulded-product take-out. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published machine range of 50T–230T, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/injection-moulding-cartesian-servo-robot.png",
      "wordCount": 655,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/large-five-axis-servo-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/large-five-axis-servo-robot/",
      "title": "1,300T–2,100T Injection Moulding Robot | BRTN24WSS5PC",
      "description": "BRTN24WSS5PC reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete robot-cell suitability.",
      "h1": "Large Five-Axis Servo Robot",
      "directAnswer": "",
      "headings": [
        "Large Five-Axis Servo Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Injection-moulding automation",
        "How to choose an industrial robot",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTN24WSS5PC?",
          "answer": "The reference guide lists applications including motorcycle helmets and large toys, instrument panels and wheel covers, automotive bumpers and decorative panels. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published machine range of 1,300T–2,100T, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/large-five-axis-servo-robot.png",
      "wordCount": 672,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/plastic-injection-moulding-machine-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/plastic-injection-moulding-machine-robot/",
      "title": "160T–320T Injection Moulding Robot | BRTR09WDS5P0F0",
      "description": "BRTR09WDS5P0F0 reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete robot-cell suitability.",
      "h1": "Plastic Injection-Moulding Machine Robot",
      "directAnswer": "",
      "headings": [
        "Plastic Injection-Moulding Machine Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robot machine tending",
        "CNC machine tending",
        "Vision-guided sorting",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTR09WDS5P0F0?",
          "answer": "The reference guide lists applications including extraction of moulded plastic components, containers, packaging items and general moulded parts, sprue removal and transfer to conveyors. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published machine range of 160T–320T, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/plastic-injection-moulding-machine-robot.png",
      "wordCount": 686,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/professional-six-axis-general-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/professional-six-axis-general-robot/",
      "title": "50 kg Six-Axis Industrial Robot UK | BRTIRUS2550A",
      "description": "BRTIRUS2550A six-axis industrial robot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "Professional Six-Axis General Robot",
      "directAnswer": "",
      "headings": [
        "Professional Six-Axis General Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robot machine tending",
        "CNC machine tending",
        "Robotic assembly",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRUS2550A?",
          "answer": "The reference guide lists applications including general industrial handling and machine tending, loading/unloading and component transfer, assembly and production-line automation. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 50 kg, and a published reach or span of 2,550 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/professional-six-axis-general-robot.png",
      "wordCount": 693,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/six-axis-collaborative-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/six-axis-collaborative-robot/",
      "title": "5 kg Collaborative Robot UK | BRTIRXZ0805A Cobot",
      "description": "BRTIRXZ0805A collaborative robot / cobot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "Six-Axis Collaborative Robot",
      "directAnswer": "",
      "headings": [
        "Six-Axis Collaborative Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robot machine tending",
        "CNC machine tending",
        "Vision-guided sorting",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRXZ0805A?",
          "answer": "The reference guide lists applications including product packaging and light assembly, injection-moulding support and machine loading/unloading, human-machine collaborative production cells. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 5 kg, and a published reach or span of 930 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/six-axis-collaborative-robot.png",
      "wordCount": 685,
      "lastModified": "2026-09-01"
    },
    {
      "file": "robots/six-axis-industrial-spraying-robot/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/robots/six-axis-industrial-spraying-robot/",
      "title": "13 kg Industrial Spray Robot UK | BRTIRSE2013F",
      "description": "BRTIRSE2013F spraying robot reference data, applications and integration checks. Validate payload, reach, tooling, safety and complete cell suitability.",
      "h1": "Six-Axis Industrial Spraying Robot",
      "directAnswer": "",
      "headings": [
        "Six-Axis Industrial Spraying Robot",
        "Where this reference platform may fit.",
        "Validate the complete cell before selecting the robot.",
        "A production system needs more than a robot arm.",
        "Frequently asked questions",
        "Applications and guidance related to this platform",
        "Robotic spraying and coating",
        "How to choose an industrial robot",
        "Check this platform against your real application."
      ],
      "faqs": [
        {
          "question": "What applications may suit the BRTIRSE2013F?",
          "answer": "The reference guide lists applications including paint, coating and spray-gun operations, powder or dust spraying, accessory handling in protected spray environments. The final task must be checked against the real product, tooling, access, rate and environment."
        },
        {
          "question": "Do the published specifications confirm final suitability?",
          "answer": "No. The platform has a published payload of 13 kg, and a published reach or span of 2,000 mm, but these figures do not validate wrist loads, motion path, cycle, protection, machine interfaces or the safety concept."
        },
        {
          "question": "What payload should be used for selection?",
          "answer": "Use the complete moving payload: product, gripper, adapter, tool changer, sensors, valves, hoses and cables. Centre of gravity, wrist moments and acceleration also require checking."
        },
        {
          "question": "What information is needed for an application review?",
          "answer": "Provide product dimensions and mass, pick and place positions, required orientation, target rate, shift pattern, available layout, surrounding machinery, environment and a video of the current process where possible."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/products/six-axis-industrial-spraying-robot.png",
      "wordCount": 673,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/",
      "title": "Robot Integration Services UK | 10 Engineering Services",
      "description": "Ten robot integration services covering feasibility, EOAT, vision, controls, safety, simulation, commissioning, maintenance, retrofit and lifecycle support.",
      "h1": "Every discipline needed to deliver a complete robot cell.",
      "directAnswer": "Robot integration can require feasibility engineering, end-of-arm tooling, product presentation, vision, PLC and robot programming, machine interfaces, safeguarding, simulation, installation, commissioning, training, maintenance and lifecycle upgrades. The exact scope is defined from the task and existing production equipment.",
      "headings": [
        "What services are required to integrate an industrial robot cell?",
        "Choose the next topic for your project.",
        "A robotics integrator for complete production cells",
        "Robot grippers engineered around the real product",
        "Safety engineered into the complete robot cell",
        "Robot, PLC and machine controls designed as one system",
        "Vision-guided robots that can locate, inspect and sort",
        "From factory test to stable production handover",
        "Robot automation feasibility study",
        "Robot simulation and offline programming",
        "Industrial robot maintenance and support",
        "Robot cell retrofit and upgrades",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 412,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/automation-feasibility-study/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/automation-feasibility-study/",
      "title": "Robot Automation Feasibility Study UK | Concept & Risk Review",
      "description": "Robot automation feasibility studies for UK manufacturers covering task definition, cycle, payload, reach, tooling, layout, safety, interfaces, cost and payback evidence.",
      "h1": "Prove the automation concept before committing to equipment.",
      "directAnswer": "A robot automation feasibility study establishes whether a production task can be automated credibly and what the complete cell would need. It examines the real product, target rate, robot motion, gripping or process tooling, presentation, machine interfaces, safety, footprint, recovery and commercial assumptions before an equipment commitment is made.",
      "headings": [
        "What is a robot automation feasibility study?",
        "A good study removes uncertainty from the next decision.",
        "Begin with the business problem, then test the engineering conditions.",
        "A practical feasibility pack should expose assumptions and constraints.",
        "What information makes the study useful?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robotics integrator UK",
        "How to choose an industrial robot",
        "Robot automation ROI calculator",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Does a feasibility study include a fixed quotation?",
          "answer": "It can support budgetary or detailed pricing, but the commercial output depends on the evidence available and whether trials, surveys or supplier engineering are still required."
        },
        {
          "question": "Can the study compare a cobot with an industrial robot?",
          "answer": "Yes. The comparison should consider the complete application: cycle, payload, reach, interaction, guarding, tooling, recovery and whole-cell cost—not only the robot type."
        },
        {
          "question": "Is a physical trial always necessary?",
          "answer": "No. Some deterministic handling tasks can be assessed from reliable data. Trials are valuable where product behaviour, gripping, vision, finish quality or process response is uncertain."
        },
        {
          "question": "What should the final output contain?",
          "answer": "A useful output records assumptions, concept architecture, cycle basis, robot/tooling needs, safety considerations, data gaps, risks, acceptance criteria and the recommended next step."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 727,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/commissioning-training-support/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/commissioning-training-support/",
      "title": "Robot Cell Installation, Commissioning & Training UK",
      "description": "Installation, commissioning, production proving, operator training and handover for industrial robot and collaborative robot cells.",
      "h1": "From factory test to stable production handover.",
      "directAnswer": "Commissioning connects the cell to site services and surrounding machinery, verifies safety and interfaces, proves the sequence with real products, tunes performance, trains users and records the final settings and acceptance results.",
      "headings": [
        "What happens during robot cell commissioning?",
        "Factory testing reduces avoidable site disruption.",
        "Commission the complete process, not only the robot motion.",
        "Give operators and maintenance teams the information they need.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "How to choose an industrial robot",
        "Robot automation cost",
        "Discuss your application",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "How long does robot commissioning take?",
          "answer": "It depends on cell complexity, site readiness, interface availability, product variation and acceptance testing. The project programme should identify dependencies before delivery."
        },
        {
          "question": "What should be ready before installation?",
          "answer": "Typical requirements include clear access, foundations or floor condition, electrical and pneumatic services, network points, production equipment, approved layouts, representative products and responsible site contacts."
        },
        {
          "question": "Who should attend robot training?",
          "answer": "Operators, line leaders, maintenance personnel and engineering staff may need different levels of training. The required groups should be agreed during project planning."
        },
        {
          "question": "Is production support available after handover?",
          "answer": "Support arrangements can be defined with the project, including remote assistance, site attendance, spare parts, planned checks or additional training where appropriate."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 591,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/end-of-arm-tooling/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/end-of-arm-tooling/",
      "title": "Robot Grippers & End-of-Arm Tooling UK | EOAT Design",
      "description": "End-of-arm tooling and robot gripper design for handling, palletising, machine tending, packaging, assembly and vision-guided robot applications.",
      "h1": "Robot grippers engineered around the real product.",
      "directAnswer": "End-of-arm tooling, often shortened to EOAT, is the gripper or process tool mounted to the robot wrist. It may pick products, operate a welding torch, dispense material, hold inspection equipment or combine several functions in one tool.",
      "headings": [
        "What is end-of-arm tooling?",
        "Select the gripping principle from product behaviour, not appearance alone.",
        "The right gripper protects output, product quality and uptime.",
        "Tooling, utilities and software are engineered as one system.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "How to choose an industrial robot",
        "Robot automation cost",
        "Discuss your application",
        "Robot gripper types",
        "Robot bin picking",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Which robot gripper is best for boxes?",
          "answer": "Vacuum is common for sealed cartons, but the correct choice depends on board quality, tape, surface leakage, mass, pick orientation, acceleration and whether several boxes are handled at once."
        },
        {
          "question": "Does gripper weight reduce robot payload?",
          "answer": "Yes. Published robot payload must include the complete end effector, sensors, valves, hoses, cables and the product. Wrist moments and centre of gravity also need checking."
        },
        {
          "question": "Can one gripper handle several products?",
          "answer": "Often. A multi-product tool may use adjustable fingers, multiple vacuum zones, recipe-controlled settings or automatic tool change. The best approach depends on variation and changeover frequency."
        },
        {
          "question": "Should tooling be tested before the cell is built?",
          "answer": "Testing is sensible when the product is porous, flexible, fragile, inconsistent, hot, wet, oily or difficult to present. A handling trial can reduce technical risk before detailed design."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 713,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/robot-cell-safety/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/robot-cell-safety/",
      "title": "Robot Cell Safety, Guarding & Risk Assessment UK",
      "description": "Robot and cobot cell safety engineering: risk assessment, guarding, safety circuits, access control, validation and machinery conformity support.",
      "h1": "Safety engineered into the complete robot cell.",
      "directAnswer": "Sometimes. A collaborative robot arm does not automatically make the complete application safe without guarding. Tooling, product hazards, speed, force, trapping points, nearby machinery and foreseeable contact must be assessed for the actual task and operating modes.",
      "headings": [
        "Does a cobot cell need guarding?",
        "Safeguarding follows the hazards and required access.",
        "Collaborative operation is a property of the application, not just the arm.",
        "Documentation and conformity are part of the delivered system.",
        "Check current official safety and conformity guidance.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "How to choose an industrial robot",
        "Robot automation cost",
        "Discuss your application",
        "UK industrial robot safety standards",
        "Robot cell layout design",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Are collaborative robots automatically safe?",
          "answer": "No. The complete application must be risk assessed. The tool, product, speed, force, trapping points and surrounding equipment can create hazards even when the arm has collaborative functions."
        },
        {
          "question": "What guarding can a robot cell use?",
          "answer": "Options include fixed perimeter guards, interlocked access doors, light curtains, laser scanners, pressure-sensitive devices and safety-rated robot functions. The selection follows the risk assessment and required access."
        },
        {
          "question": "Who is responsible for robot cell conformity?",
          "answer": "Responsibility depends on the commercial and technical supply arrangement. It must be agreed clearly at project definition, including who integrates the final machine, compiles technical documentation and signs the declaration."
        },
        {
          "question": "Which standards apply to industrial robot cells?",
          "answer": "Robot and robot-cell projects commonly refer to the current editions of BS EN ISO 10218 and related machinery-safety standards. The applicable set must be determined for the actual machine and destination market."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 794,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/robot-maintenance-support/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/robot-maintenance-support/",
      "title": "Industrial Robot Maintenance & Support UK | Preventive Service",
      "description": "Industrial robot maintenance and technical support for robot cells, including inspection, preventive servicing, fault diagnosis, backup, recovery and lifecycle planning.",
      "h1": "Robot maintenance and support focused on production availability.",
      "directAnswer": "Industrial robot maintenance can include visual and functional inspection, lubrication and service tasks, condition checks, controller backups, alarm review, safety-function checks, cable and dress-pack inspection, calibration or accuracy checks and planned replacement of age- or duty-sensitive components. Scope depends on the robot, process, environment and manufacturer requirements.",
      "headings": [
        "What does industrial robot maintenance include?",
        "Maintenance protects the complete cell, not only the robot arm.",
        "Build the maintenance regime from duty, environment and production consequence.",
        "Recovery information should exist before a breakdown.",
        "What information supports a maintenance proposal?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Commissioning, training and support",
        "Robot retrofit and upgrades",
        "UK robot safety standards",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can you maintain a robot cell that was supplied by another integrator?",
          "answer": "Potentially, after a technical review of documentation, access, equipment condition, software and the boundaries of responsibility. Some manufacturer-specific tasks may require an authorised service route."
        },
        {
          "question": "How often should an industrial robot be serviced?",
          "answer": "Intervals depend on the manufacturer instructions, operating hours, duty, payload, environment and process. A risk-based plan should use those inputs rather than one generic frequency."
        },
        {
          "question": "Why are controller backups important?",
          "answer": "Current backups reduce recovery time after controller, storage, battery or software problems and preserve robot programs, PLC logic, HMI configuration, vision jobs and calibrated parameters."
        },
        {
          "question": "Does maintenance include safety validation?",
          "answer": "The agreed scope can include functional checks of relevant safety devices and operating modes. Changes or faults may require a more formal validation or risk-assessment review."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 715,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/robot-programming-controls/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/robot-programming-controls/",
      "title": "Robot Programming, PLC & Controls Integration UK",
      "description": "Robot programming and controls integration for complete cells, including PLC, HMI, safety, machine interfaces, networks, recipes and production data.",
      "h1": "Robot, PLC and machine controls designed as one system.",
      "directAnswer": "Controls integration normally covers robot programs, PLC and HMI software, safety logic, I/O and network interfaces, recipes, alarm handling, sequence control, data exchange, commissioning and documentation for the complete cell.",
      "headings": [
        "What is included in robot controls integration?",
        "The cell needs a clear operating state, not isolated pieces of code.",
        "Operators need useful information when production changes or stops.",
        "Software is tested with the real interfaces and documented for support.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "How to choose an industrial robot",
        "Robot automation cost",
        "Discuss your application",
        "Simulation and offline programming",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can a robot communicate with an existing PLC?",
          "answer": "Usually, provided compatible I/O or industrial communication is available and the required handshakes can be implemented. The existing control system and documentation should be reviewed early."
        },
        {
          "question": "What signals are needed for machine tending?",
          "answer": "Typical signals include machine ready, cycle complete, door or chuck status, robot load complete, robot clear, cycle start, fault and safety status. Exact signals depend on the machine and process."
        },
        {
          "question": "Can one cell run several products?",
          "answer": "Yes. Recipes can coordinate robot paths, gripper settings, inspection parameters and surrounding equipment. Product presentation and tooling must also support the required changeovers."
        },
        {
          "question": "Do you provide robot program backups?",
          "answer": "Project handover should define the software, backups, version information and access supplied to the customer. The exact package depends on the equipment and support agreement."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 660,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/robot-retrofit-upgrades/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/robot-retrofit-upgrades/",
      "title": "Robot Cell Retrofit & Upgrade Services UK | Automation Modernisation",
      "description": "Robot cell retrofit and upgrade services for controls, tooling, vision, guarding, safety, conveyors, programming and replacement of obsolete automation equipment.",
      "h1": "Extend robot-cell capability through targeted retrofit and upgrades.",
      "directAnswer": "A robot cell retrofit modifies or replaces selected parts of an existing automation system to restore supportability, improve performance, add product formats, address safety or obsolescence issues, or connect the cell to changed production equipment. The scope can range from tooling and controls changes to a replacement robot within a retained cell.",
      "headings": [
        "What is a robot cell retrofit?",
        "Retrofit value depends on what can be retained safely and supportably.",
        "Survey the installed reality before defining a retrofit scope.",
        "Modernisation can be targeted rather than indiscriminate.",
        "What evidence supports a retrofit decision?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robot programming and controls",
        "Robot cell safety engineering",
        "Automation feasibility study",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Is it better to retrofit or replace a robot cell?",
          "answer": "The decision depends on condition, supportability, safety, future formats, performance and the cost of retaining legacy risk. A survey should compare both routes rather than assume retrofit is always cheaper."
        },
        {
          "question": "Can an old robot be replaced while keeping conveyors and guarding?",
          "answer": "Potentially, if the retained equipment remains suitable and the new robot’s reach, loads, controller, safety functions and interfaces can be integrated and validated."
        },
        {
          "question": "Does adding a new product require a full rebuild?",
          "answer": "Not necessarily. New recipes, tooling, fixtures, sensing or vision may be sufficient, but reach, payload, cycle and safety must be checked for the additional use."
        },
        {
          "question": "Will a retrofit need new conformity documentation?",
          "answer": "Changes can affect the legal and technical responsibilities for the machine. The required assessment and documentation depend on the scope and significance of the modification and should be reviewed for the specific project."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 736,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/robot-simulation-offline-programming/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/robot-simulation-offline-programming/",
      "title": "Robot Simulation & Offline Programming UK | Cell Reach & Cycle Study",
      "description": "Robot simulation and offline programming for reach, collision, layout, cycle-time, tooling and path studies before cell build or production-line change.",
      "h1": "Robot simulation and offline programming before production disruption.",
      "directAnswer": "Robot simulation uses digital models of the robot, tooling, fixtures, products and surrounding equipment to study motion and cell behaviour. Offline programming develops robot paths away from the live cell, then transfers and validates them on the real equipment. Both methods reduce—but do not eliminate—the need for on-site proving and calibration.",
      "headings": [
        "What is robot simulation and offline programming?",
        "Simulation exposes geometry and timing risk earlier.",
        "Use accurate models and state assumptions clearly.",
        "Simulation is a decision tool, not a substitute for physical validation.",
        "What information is required for a useful simulation?",
        "Frequently asked questions",
        "Continue planning the project.",
        "Robot cell layout design",
        "Robot cycle-time calculator",
        "Robot programming and PLC controls",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Does simulation guarantee the final cycle time?",
          "answer": "No. It provides an evidence-based estimate whose accuracy depends on the model and input data. Real equipment, communication, material behaviour and production recovery must still be validated."
        },
        {
          "question": "Can offline programming eliminate production downtime?",
          "answer": "It can reduce time spent creating paths on the live cell, but calibration, touch-up, safety checks, process proving and production acceptance still require controlled on-site work."
        },
        {
          "question": "Can simulation compare two robot sizes?",
          "answer": "Yes. Candidate robots can be compared for reach, singularities, tool orientation, clearance, cycle and layout before a platform is selected."
        },
        {
          "question": "Is simulation useful for existing cells?",
          "answer": "Yes. It can assess new products, tooling or layout changes, provided the model reflects the installed cell and relevant calibration data."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 734,
      "lastModified": "2026-09-01"
    },
    {
      "file": "services/robot-vision-systems/index.html",
      "url": "https://www.oxfordindustrialautomation.co.uk/services/robot-vision-systems/",
      "title": "Robot Vision Systems UK | Guidance, Inspection & Sorting",
      "description": "Robot vision integration for part location, orientation, guidance, inspection, identification, sorting and production-data capture.",
      "h1": "Vision-guided robots that can locate, inspect and sort.",
      "directAnswer": "Robot vision can locate and orient parts, guide a pick, inspect presence or geometry, read codes, identify variants and send position or classification data to the robot and PLC. Performance depends on the product, presentation, optics, lighting and required decision time.",
      "headings": [
        "What can robot vision do?",
        "Define what the camera must decide before selecting hardware.",
        "Lighting and product presentation are often the decisive factors.",
        "Test the complete range of good and bad product conditions.",
        "Frequently asked questions",
        "Continue planning your automation project",
        "How to choose an industrial robot",
        "Robot automation cost",
        "Discuss your application",
        "3D vision bin picking",
        "Robotic quality inspection",
        "Discuss the production task with an automation engineer."
      ],
      "faqs": [
        {
          "question": "Can a robot pick randomly positioned products?",
          "answer": "Often, if the camera can reliably locate each product, identify a valid gripping point and provide coordinates quickly enough for the required cycle. Overlap and occlusion can limit performance."
        },
        {
          "question": "Is 2D or 3D vision required?",
          "answer": "2D vision is effective for many flat or controlled-height applications. 3D may be needed when height varies, products overlap, surfaces are complex or a depth map is required."
        },
        {
          "question": "Can vision inspect a part while guiding the robot?",
          "answer": "Yes. One system can sometimes locate a product and check features, although the imaging geometry and resolution must support both tasks within the cycle time."
        },
        {
          "question": "What samples are needed for a vision trial?",
          "answer": "Provide the full range of good products, known defects, colours, finishes, packaging variations and any contamination or presentation conditions expected in production."
        }
      ],
      "image": "https://www.oxfordindustrialautomation.co.uk/assets/images/social/industrial-robots-cobots-uk.jpg",
      "wordCount": 664,
      "lastModified": "2026-09-01"
    }
  ]
}