Hospital maintenance software for biomedical and technical services

Why hospital maintenance is an audit question, not only an uptime question

A broken patient monitor can delay surgery. A pump that was not serviced on time can delay a treatment. Hospital equipment failures reach patients directly, which is why regulators and accreditation surveyors do not ask whether a device works today. They ask for the proof that it was maintained, tested and calibrated on schedule, by whom, and with what result.

That proof is hard to produce when history lives in binders, service reports from outside vendors and a spreadsheet nobody owns. Hundreds of devices with different intervals, certificates that expire on different dates and interventions in sterile areas, intensive care and operating theatres make the gaps predictable. According to FreeMaint Research, 2026, 27.1% of maintenance sites log no preventive maintenance at all, and the median preventive share of work is 22.5%.

• Patient safety: an unavailable ventilator or defibrillator is a clinical risk, not just downtime.
• Traceability: every inspection, repair and calibration needs a date, a technician and a result.
• Volume: several hundred devices, each with its own manufacturer interval and certificates.
• Sensitive areas: work in theatres, ICU or sterile zones must be planned around clinical activity.

Biomedical engineering and technical services in the same system

Clinical engineering looks after imaging, ventilators, monitors, infusion pumps, dialysis machines and lab analysers. Technical services look after generators, medical gas outlets, theatre ventilation, sterilisation, water systems and lifts. Both teams answer to the same auditors, so both belong in the same register.

Organise equipment by department (cardiology, ICU, laboratory, surgery, pharmacy) so each unit sees its own devices, while the central team plans across buildings. Asset statuses show what is operational, degraded, down or in maintenance; setting a device to Down opens a downtime period that feeds availability and MTBF figures. On the Starter plan and above, each asset can also carry certificates with number, issuing body and expiry date, with alerts 30, 15 and 7 days before expiry.

When a calibration fails: closing the loop

On the Business plan, each calibration record holds nominal values, tolerance limits and as-found and as-left readings for every point. The result is computed, not typed, so it cannot be softened after the fact. Two options, off by default and set per instrument, close the loop: create a corrective work order linked to the record, or quarantine the instrument by taking it out of service.

On the Enterprise plan, reverse traceability lists the measurements taken with the instrument since its last good calibration, so you can review what may have been affected. Uncertainty and the test uncertainty ratio are printed on the certificate, and the approval can require the signer to re-enter their password first.

What FreeMaint does not do, and where regulation fits

FreeMaint manages equipment, not patients. It has no bed or patient management and no connection to hospital information systems, and it does not drive electrical safety testers: you record the result of an IEC 62353 recurrent test as an inspection or attach the tester report to the asset. Keep patient identifiers out of work orders.

Frameworks such as IEC 62353, the EU Medical Device Regulation, ISO 13485 on the manufacturer side and national device-management guidance shape what a hospital must document. FreeMaint helps you keep that documentation complete and retrievable; it is not a certification and does not replace your own quality system.