OH Consultant
← All SWMS Documents
πŸ§—

Rope Access Tank / Silo Inspection SWMS

SWMS template for rope access tank / silo inspection. Covers Industrial inspection from rope inside tanks.. 8-state AU coverage, CIH-reviewed editable DOCX, available as an instant download.

βš–οΈWHS Regulation 2025 & Codes of Practice β€” legally binding from 1 July 2026 (s26A)
πŸ‘·Reviewed by certified occupational health and safety professionals
πŸ—ΊοΈState-specific variants for all 8 Australian jurisdictions
$199 AUDβœ“ Instant Download Available

SWMS variants reference your state’s WHS legislation. Instant download after payment.

Rope access inspection inside industrial tanks and silos combines two of the highest-consequence work categories recognised under Australian WHS law: work at height by suspended rope and entry into a confined space with potentially hazardous atmospheres. Inspectors descend into vertical cylindrical vessels β€” grain silos, fuel tanks, process reactors, water reservoirs β€” to assess corrosion, weld integrity, coating condition or residual product, often with limited natural light, restricted egress and oxygen-deficient or flammable atmospheres. This work is High Risk Construction Work under WHS Regulation 2011 r291 (work at height >2m and confined space entry), and a Safe Work Method Statement is mandatory before commencement and must be kept on site, available to regulators and workers, and reviewed if conditions change. This SWMS template documents the systematic hazard identification, control selection, atmospheric monitoring regime, rescue plan and sign-on process required to discharge the PCBU's primary duty of care under s19 of the WHS Act.

Hazards identified

7 hazards covered, sorted by priority.

Oxygen-deficient or oxygen-enriched atmosphere inside sealed vessel from product off-gassing, rust consumption or inert purgingHIGH

Rapid loss of consciousness within seconds, asphyxiation, fall-arrest suspension trauma compounding hypoxia, fatality before rescue

Flammable or toxic vapour residue from previous product (hydrocarbons, solvents, fermentation gases, H2S)HIGH

Acute chemical pneumonitis, explosion on ignition source, chronic neurological injury, prosecution under s32 reckless conduct

Suspension trauma during fall-arrest or prolonged stationary rope work above unreachable anchorHIGH

Venous pooling, orthostatic shock, cardiac arrest within 10-30 minutes if casualty not retrieved horizontal

Anchor failure on corroded silo roof beam, deteriorated concrete edge or unrated structural elementHIGH

Uncontrolled fall to vessel floor, multiple fractures, traumatic brain injury, fatal impact from heights exceeding 10 metres

Engulfment in residual bulk product (grain, powder, sludge) bridging or rat-holing above the inspectorHIGH

Burial within seconds, mechanical asphyxiation, crush injury, body recovery rather than rescue outcome

Restricted vertical egress through single top manway preventing rapid casualty extractionMEDIUM

Rescue delay beyond survivable window, secondary rescuer fatality, breach of confined space rescue plan requirements

Heat stress from radiant solar load on steel vessel walls combined with full PPE and rope harnessMEDIUM

Dehydration, heat exhaustion, impaired judgement leading to descent errors, heat stroke requiring hospitalisation

Control measures

Hierarchy-of-controls order: elimination β†’ substitution β†’ isolation β†’ engineering β†’ administrative β†’ PPE.

  1. 1Elimination β€” Use remote inspection technologies (drone, crawler, borescope, LiDAR) deployed through the top manway to eliminate the need for human entry where defect detection criteria can be met visually.
  2. 2Elimination β€” Schedule inspection during planned shutdown after full product evacuation, mechanical cleaning and atmospheric purge so no residual hazardous material remains in the vessel.
  3. 3Substitution β€” Replace single-rope descent with twin-rope IRATA Level 3 system using independent anchors so no single component failure can result in a fall.
  4. 4Engineering β€” Install certified structural anchor points rated to AS/NZS 5532 minimum 15kN, independently load-tested and tagged within 12 months prior to use.
  5. 5Engineering β€” Continuous atmospheric monitoring with calibrated 4-gas detector (O2, LEL, CO, H2S) bump-tested pre-entry, with audible alarms set per AS/NZS 2865 confined space limits.
  6. 6Engineering β€” Mechanical ventilation supplying minimum 20 air changes per hour through dedicated inlet and exhaust ducts, maintained throughout the entire entry duration.
  7. 7Administrative β€” Issue and sign Confined Space Entry Permit per AS/NZS 2865 specifying duration, atmospheric results, standby person, rescue plan and authorised entrants before each entry.
  8. 8Administrative β€” Dedicated trained standby person at manway maintaining continuous voice and visual contact, with hauling system pre-rigged for vertical retrieval within 4 minutes.
  9. 9Administrative β€” Pre-start SWMS sign-on briefing covering rescue triggers, communication signals, atmospheric alarm response and emergency self-rescue procedures with all entrants.
  10. 10PPE β€” Full body harness AS/NZS 1891.1 with suspension trauma straps, supplied-air respirator or SCBA AS/NZS 1716, hard hat with chin strap, intrinsically safe lighting and gas detector worn in breathing zone.

Applicable Codes of Practice

AS/NZS 2865:2009 Confined Spacesβš– Legally binding Β· 1 Jul 2026

Mandates entry permit system, atmospheric testing regime, standby person and rescue arrangements directly applicable to every tank and silo entry under this SWMS.

AS/NZS 4488.1 & 4488.2 Industrial Rope Access Systemsβš– Legally binding Β· 1 Jul 2026

Specifies twin-rope requirements, anchor standards, operator competency and supervision ratios governing the rope access component of the inspection work.

Model Code of Practice: Confined Spaces (Safe Work Australia)βš– Legally binding Β· 1 Jul 2026

Sets the regulator's expected risk management process for confined space work including hierarchy of control application and rescue plan documentation.

AS/NZS 1891.4 Industrial Fall-Arrest Systems and Devices β€” Selection, Use and Maintenance

Governs harness inspection intervals, suspension trauma response and connector compatibility relied upon for the fall-arrest backup system during descent.

High-Risk Construction Work triggered

4
Work involving a risk of a person falling more than 2 metres

Inspectors descend on rope from the vessel roof to floor, routinely exceeding 2 metres and often 10-30 metres inside silos and storage tanks.

9
Work in or near a confined space

Tank and silo interiors meet the AS/NZS 2865 confined space definition β€” enclosed, not designed for human occupancy, with restricted entry and potential atmospheric hazards.

10
Work in or near an area with an atmosphere that has a potentially harmful level of contaminant

Residual product vapours, oxygen displacement from rust or inert purges and dust loading routinely produce atmospheres below or above safe contaminant thresholds during entry.

Legal consequence

PCBUs must prepare, consult workers on, and retain this SWMS for the duration of the work plus two years after any notifiable incident; penalties for non-compliance are substantial and indexed annually to the prevailing WHS schedule.

Who this is for

  • β†’IRATA and ARAA certified rope access inspection technicians
  • β†’Asset integrity managers in oil, gas and bulk storage
  • β†’Grain handling and silo maintenance contractors nationally
  • β†’NDT and coatings inspectors entering process vessels

What you receive

  • βœ“Editable DOCX template β€” Microsoft Word compatible
  • βœ“State-specific WHS legislation schedule (NSW/VIC/QLD/SA/WA/TAS/NT/ACT)
  • βœ“Hazard register with risk ratings + hierarchy-of-control mapping
  • βœ“Worker sign-on register, pre-start checklist, and incident escalation flow

Worked example

A two-person rope access team is scheduled to inspect the internal coating of a 22-metre regional bulk fuel storage tank following decommissioning of the product line. At the pre-start brief on site, the supervisor opens this SWMS on a ruggedised tablet and walks both technicians and the standby person through each row of the hazard register. When they reach the atmospheric hazard line, the standby person notes that the tank has only been ventilated overnight, not the recommended 48 hours; the team pauses, runs the 4-gas detector through the manway on a sample line, and records 18.9% oxygen β€” below the 19.5% entry threshold in AS/NZS 2865. Following the SWMS control hierarchy, they escalate ventilation by adding a second blower and delay entry by 90 minutes until readings stabilise at 20.8% O2, 0% LEL. The Confined Space Entry Permit and SWMS sign-on sheet are then completed, with each entrant initialling the rescue plan section confirming they understand the hauling system is rigged and the standby person retains voice contact every two minutes. Mid-task, the lead technician identifies unexpected sludge pooling at the floor not noted in the scope; he ascends, the supervisor amends the SWMS with the new engulfment control, both workers re-sign, and work resumes safely.

Related legislation

  • WHS Act 2011 (model)
  • WHS Regulation 2025
  • AS/NZS 4488 β€” Industrial rope access systems; IRATA guidelines
What's in this SWMS

Document details

Regulation
WHS Regulation 2011 r291 β€” High Risk Construction Work; applicable state WHS Regulations and Codes of Practice.
HRCW Category
Suspended work, confined adjacent, atmospheric
Hazards Identified
6 hazards with controls
Format
Editable DOCX (Microsoft Word)
Author
Certified Industrial Hygienist (CIH)
Delivery
Instant download after payment