Commissioning software for underground mines where the hoist, the ventilation system and the refuge infrastructure have to be proven before anyone works at depth.

Shaft winders, ventilation fans, refuge bays and gas monitoring nodes are commissioned by different specialist contractors on different schedules, often over months as levels are developed one at a time, and none of it converts automatically into permission to send a crew underground.

When overspeed test certificates, ventilation survey results and refuge bay verification sit in separate contractor files, the mine manager cannot answer a basic question at the start of a shift: is this level actually fit to work in today.

Deskely puts every shaft, fan, regulator and refuge bay in one register with one status model, so the readiness of a level or a shaft is derived from signed statutory records instead of assembled from memory before the shift starts.

Winder overspeed trips, emergency brake holding capacity and conveyance guide clearances are recorded against the shaft asset with the measured values the shaft examiner needs, not a narrative summary written up afterward.

Ventilation-on-demand testing proves that fan speed, regulator position and airflow at the working face respond correctly to real-time gas readings, with each test run linked to the level and heading it protects.

Refuge bay commissioning — air supply duration, communications, and self-rescuer inventory — is recorded per bay, and gas monitoring node calibration is tracked against its own recalibration cycle so an overdue sensor is visible before it becomes a hazard nobody caught.

Rock bolt installation, shotcrete application and mesh coverage are commissioned against a ground support design that varies stope by stope and level by level, and in seismically active ground a microseismic monitoring array has to be live and calibrated before development advances past a defined depth.

After a seismic event or a production blast, re-entry is governed by a strict protocol — gas clearance, visual ground inspection and, on high-risk levels, a geotechnical sign-off referencing the seismic array's own event log — and that protocol is worthless if the array's sensor calibration or the ground support installation record for the affected heading cannot be produced on the spot.

Deskely holds rock bolt pull-testing records, shotcrete thickness verification and seismic sensor calibration against the specific heading and level they cover, so a re-entry decision is made against a signed ground support and monitoring record rather than a shift boss's memory of when that stope was last inspected.