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Supporting small and medium-sized enterprises in Shinagawa Ward to adopt automation, robotics, and digital-transformation solutions for improved productivity.

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Creating a Maintenance Schedule for a New Cobot Installation

A collaborative robot, or cobot, can improve output without requiring a large factory footprint. Its flexible arm may handle pick-and-place work, machine tending, packing, inspection or pallet preparation, while employees focus on skilled decisions and customer needs. The benefits become reliable when maintenance is planned before the first production run.

A new cobot installation needs more than a manufacturer’s service manual. Your schedule should reflect the robot model, end-of-arm tooling, safety devices, work environment, software configuration and production hours. It should also assign responsibility, record completed checks and define what happens when a fault appears.

For Australian small and medium-sized businesses, this planning supports productivity while fitting local workplace expectations. A workshop in Melbourne may run different shifts from a food packer in Brisbane, while a Sydney business serving online customers may have little tolerance for an unexpected stoppage. A practical maintenance calendar helps each operation protect safety, quality and delivery commitments.

Start with a documented baseline

Before setting inspection intervals, record the cobot’s condition at commissioning. Capture the robot model, serial number, controller version, payload, reach, gripper type, sensors, guarding and safety-rated monitored stops. Keep photographs of cable routing, tool mounting, control-panel settings and the approved operating area.

Run a controlled test of every programmed movement at low speed. Check that the robot reaches its intended positions, stops when expected and resumes correctly after a permitted reset. Test emergency stops, enabling devices, light curtains, scanners and interlocks as part of the handover. A baseline makes later changes easier to identify.

Assign ownership clearly. A production supervisor may approve daily checks, while a trained maintenance technician handles mechanical inspection and software backups. A digital champion for DX can coordinate operators, managers and technology suppliers so maintenance data leads to useful process improvements rather than sitting in a folder.

Match service intervals to real operating conditions

Use three time horizons: operator checks, planned technical servicing and periodic professional inspection. Daily checks should be brief enough to complete at the start of a shift. Weekly or monthly work can be more detailed, while quarterly or annual servicing may require the integrator or robot manufacturer.

Operating conditions should influence the frequency. A cobot exposed to cardboard fibres, flour, metal dust, washdown moisture or high temperatures may need more frequent cleaning and inspection than one working in a clean assembly cell. Australian summer heat can affect controller ventilation and electronics, particularly in sheds without stable climate control. Dust filters and cooling fans deserve attention before hot-weather production peaks.

Track workload as well as calendar time. A robot running two shifts, frequent rapid movements or heavy payloads may reach its service threshold sooner than a lightly used unit. Record cycle count, operating hours, fault codes, collision events and unplanned stops. These figures can reveal wear that a monthly visual inspection misses.

Turn routine tasks into a usable calendar

The schedule should appear where operators work, whether that is a laminated sheet beside the cell, a digital maintenance platform or a shared system linked to production planning. Each task needs a clear action, responsible person, acceptance standard and escalation rule. “Check the gripper” is vague; “inspect jaws for damage, confirm grip test and report any slippage” is actionable.

Operator checks for each shift

Planned technical checks

Keep spare parts and consumables aligned with the schedule. Common items might include gripper fingers, vacuum cups, filters, fuses, cable supports and approved lubricants. Stock levels should reflect supplier lead times and the cost of stopping production. A regional business may need more planning than a city site with several local distributors.

Build safety and compliance into every review

In Australia, the business has duties under applicable state or territory work health and safety legislation. Safe Work Australia’s model guidance is a useful reference, but the relevant local regulator and workplace rules determine the obligations at a particular site. Treat the cobot as part of a complete work system, not as automatically safe because it is marketed as collaborative.

Review the risk assessment whenever the payload, gripper, speed, layout, software or production task changes. A light plastic component may be suitable for shared operation, while a sharp tool, heavy fixture or trapped pinch point may require separation, guarding or revised speed limits. Revalidate safety functions after repairs and document who authorised the return to service.

Electrical and mechanical work should be performed by appropriately competent people, with licensed electrical work completed where required by Australian rules. Include isolation and lockout procedures in the maintenance method. Operators should know how to stop the cell, report a fault and keep others away until a qualified person has assessed the equipment.

Training is part of preventive maintenance because incorrect use creates avoidable wear and faults. Train operators on start-up, shutdown, cleaning, fault reporting and prohibited adjustments. Give technicians deeper instruction on backups, parameter changes, safety validation and recovery after a collision. Refresh the training after major software or process changes.

Use suppliers and records to improve uptime

A maintenance schedule should define when outside support is needed. Establish response times, remote-access arrangements, approved replacement parts and escalation contacts during procurement. Compare providers on commissioning experience, Australian support coverage, documentation quality and their ability to integrate the cobot with existing machinery.

For businesses seeking suitable implementation partners, the program’s technology provider directory can help connect operational needs with vetted expertise. A supplier should be able to explain maintenance intervals in plain language and provide training that suits the people who will use the cell every day.

Record every inspection, adjustment, alarm, repair, software update and safety test. Include the date, equipment identifier, person responsible, findings, parts used and release approval. A simple trend review each month can show whether failures are increasing, whether a particular shift reports more collisions or whether a tooling change has reduced quality problems.

Use those findings to refine the calendar. Extend an interval only when evidence supports it and the risk assessment remains valid. Shorten it when dust, heat, workload or recurring faults justify closer attention. Maintenance becomes a productivity tool when records guide decisions about tooling design, operator training, spare parts and future automation investment.

Start the schedule before production begins: document the baseline, assign owners, set inspection frequencies and test every safety function. Then review the first month of records with your team and service provider, correcting unclear tasks before they become missed tasks. A disciplined plan gives your new cobot a safer launch, steadier performance and a clearer path to return on investment.