Comprehensive SWMS for Installing Medical Gas Pipeline Systems in Healthcare Facilities

Medical Gas Pipe System Installation Safe Work Method Statement

2,000+ Australian Businesses Trust OneClickSWMS
Generate SWMS NowView Sample PDF

No credit card required • Instant access • 100% compliant in every Australian state

5 sec
Creation Time
100%
Compliant
2,000+
Companies
$3.6K
Fines Avoided

Avoid WHS penalties up to $3.6M—issue compliant SWMS to every crew before work starts.

Medical gas pipe system installation involves the installation, testing, and commissioning of critical life-support gas distribution systems in hospitals, aged care facilities, dental practices, and other healthcare environments. This highly specialised plumbing work delivers oxygen, medical air, vacuum, nitrous oxide, nitrogen, carbon dioxide, and anaesthetic gases to patient care areas through dedicated copper pipework systems. This SWMS addresses the unique safety requirements for medical gas installation including contamination prevention, work in occupied healthcare facilities, pressure testing protocols, and the critical nature of systems that directly impact patient safety and life support.

Start Generating SWMSSee How It Works

Unlimited drafts • Built-in WHS compliance • Works across every Australian state

Overview

What this SWMS covers

Medical gas pipe system installation represents one of the most critical and highly regulated areas of plumbing work. These systems deliver life-sustaining gases directly to patient care areas including operating theatres, intensive care units, emergency departments, and patient wards. Unlike standard plumbing or gas fitting work, medical gas installations operate under AS/NZS 2896 standards which impose strict requirements for materials, installation methods, contamination control, testing procedures, and commissioning protocols. The consequences of installation errors, contamination, or system failures in medical gas systems can directly result in patient death or serious harm, making this work subject to exceptional quality assurance and verification requirements. Medical gas systems typically include oxygen supply for respiratory support, medical air for ventilators and powered medical devices, vacuum systems for surgical suction and drainage, nitrous oxide for anaesthesia, nitrogen for surgical tools, carbon dioxide for laparoscopic procedures, and anaesthetic gas scavenging systems to remove waste gases from operating areas. Each gas system requires dedicated copper pipework identified by specific colour coding, separate pressure regulation, alarm monitoring systems, and complete segregation to prevent cross-contamination between different gases. Installation work must maintain absolute cleanliness throughout all processes as any particulate contamination within oxygen systems creates fire and explosion risks while contamination in any system can be delivered directly to patients. Work typically occurs in multiple phases: rough-in installation during construction before ceiling and wall closure, connection to manifold or cylinder storage systems, pressure testing and purging to remove contaminants, final commissioning including performance verification and gas purity testing, and integration with building management and alarm systems. In renovation projects or system extensions within operational hospitals, medical gas installers must work in occupied healthcare facilities with exceptional attention to infection control, access restrictions, emergency procedures, and coordination with clinical staff to ensure patient care is never compromised. Medical gas installers require specialised licencing beyond standard gas fitting qualifications. Workers must hold specific medical gas installation licences demonstrating competency in AS/NZS 2896 standards, contamination control procedures, and pressure testing protocols. Installation must be performed under the supervision of a qualified medical gas installer, with all work subject to independent verification by certified verifiers before systems can be commissioned for patient use. The critical nature of medical gas systems means installation work is subject to extensive documentation requirements, with every joint, test result, and verification step recorded in permanent quality assurance records maintained throughout the system's operational life.

Create Custom Medical Gas Installation SWMSDownload Sample SWMSView All Plumbing SWMS

Fully editable, audit-ready, and aligned to Australian WHS standards.

Why this SWMS matters

Medical gas system failures have directly caused patient deaths in Australian healthcare facilities, making proper installation, testing, and commissioning absolutely critical for patient safety. Investigation reports into medical gas incidents have identified contamination of oxygen systems with oil or particulate matter causing fires, cross-connection between different gas systems delivering incorrect gases to patients, inadequate pressure testing allowing leaks that deplete emergency oxygen supplies during critical medical procedures, and commissioning errors that resulted in carbon dioxide being delivered to oxygen outlets causing patient asphyxiation. These catastrophic failures demonstrate why AS/NZS 2896 imposes such rigorous installation and verification requirements on medical gas systems. The Work Health and Safety Act 2011 applies to medical gas installation work, requiring PCBUs to eliminate or minimise risks to workers and others affected by the work. 'Others' specifically includes hospital patients who depend on medical gas systems for life support. This creates legal obligations that extend beyond typical construction work to encompass direct patient safety responsibilities. Medical gas installers must understand that their work directly impacts vulnerable patients including premature infants on respiratory support, surgical patients under anaesthesia, critically ill intensive care patients, and emergency patients requiring resuscitation. Any system failure, contamination, or installation error can result in patient death, mass casualty events, and criminal prosecution of responsible persons. Contamination control represents the most critical aspect of medical gas installation work. Oxygen systems enriched beyond normal atmospheric concentrations become extremely flammable environments where oils, greases, particulate matter, or any organic contamination can ignite causing system fires or explosions. All materials, tools, and workers' hands must be completely free from oils, greases, and contaminants. Copper pipe must remain sealed until immediately before installation, cutting and joining must use approved oil-free methods, and completed sections must be sealed to prevent contamination ingress. The brazing process itself must use approved silver brazing alloys while maintaining nitrogen purging through the pipe to prevent internal oxidation scale formation that would contaminate the system. Working in operational healthcare facilities introduces additional safety complexities for medical gas installers. Hospitals operate 24/7 with continuous patient care activities. Installers must navigate infection control requirements including hand hygiene, restricted access zones, and protection of vulnerable immunocompromised patients. Hot work in hospitals requires exceptional fire safety controls given the presence of oxygen-enriched atmospheres, flammable medical gases, and patients who cannot self-evacuate. Noise from cutting, drilling, and pressure testing must be managed to avoid disturbing patient rest and recovery. Emergency procedures must account for the possibility of medical emergencies occurring near work areas, requiring immediate evacuation of work areas to allow clinical response teams access. Pressure testing protocols for medical gas systems exceed those for standard plumbing or gas fitting work. Systems must withstand pressure testing at 1.5 times maximum working pressure for extended periods, with rigorous leak detection using approved methods. Oxygen systems require oil-free pressure testing equipment and medical-grade nitrogen for purging. All testing must be witnessed and verified by independent certified verifiers, with comprehensive documentation of test results, hold periods, and leak detection methods. The commissioning process includes gas purity testing to verify no cross-contamination between systems and that oxygen concentrations meet medical grade specifications. Only after successful completion of all testing and verification can systems be released for patient use, with formal handover documentation and training for clinical engineering staff who will maintain the systems during operational use.

Reinforce licensing, insurance, and regulator expectations for Medical Gas Pipe System Installation Safe Work Method Statement crews before they mobilise.

Hazard identification

Surface the critical risks tied to this work scope and communicate them to every worker.

Risk register

Oxygen System Fire and Explosion Risk from Contamination

High

Medical oxygen systems operate at pressures up to 700 kPa creating oxygen-enriched environments where normally non-flammable materials become highly combustible. Any contamination of oxygen pipework with oils, greases, cutting fluids, or organic materials creates immediate fire and explosion risks. Brazing operations on oxygen systems can ignite contamination causing internal pipe fires that propagate through the entire system. Workers' hands contaminated with hand creams, oils, or greases can transfer ignition sources to pipe internals. Tools used on oxygen systems must be completely oil-free as residual lubricants can ignite in oxygen-enriched atmospheres. The consequences of oxygen system fires extend beyond worker injuries to create mass casualty events in patient care areas supplied by contaminated systems.

Consequence: Catastrophic fires or explosions in oxygen systems causing severe burns, fatalities, extensive property damage, and patient deaths from fire propagation to occupied clinical areas. Criminal prosecution for manslaughter and WHS violations with maximum penalties including imprisonment.

Cross-Connection Between Different Medical Gas Systems

High

Installing medical gas systems requires managing multiple gas types simultaneously, each requiring dedicated pipework, colour coding, and complete segregation. Cross-connection errors occur when pipes serving different gases are incorrectly joined, when outlet fittings are installed on incorrect gas lines, or when labelling errors misidentify gas systems. These errors result in incorrect gases being delivered to patients - documented incidents include carbon dioxide connected to oxygen outlets causing patient asphyxiation, nitrous oxide delivered instead of oxygen during anaesthesia, and vacuum systems cross-connected to pressure systems. The colour-coding system (oxygen white, medical air black, vacuum yellow, nitrous oxide blue) must be rigorously maintained throughout installation, but errors still occur particularly in complex installations with numerous pipe runs.

Consequence: Patient deaths from delivery of incorrect medical gases, mass casualty events affecting multiple patients, manslaughter charges against installers and verifiers, and permanent licence revocation for responsible persons. Coronial investigations and criminal prosecutions resulting in imprisonment.

Work in Occupied Healthcare Facilities with Vulnerable Patients

High

Medical gas installation in operational hospitals requires working in proximity to critically ill patients dependent on life support systems, including premature neonates, intensive care patients, surgical patients under anaesthesia, and emergency patients requiring resuscitation. Installation activities create noise, vibration, dust, and potential service interruptions that can directly impact patient care. Hot work in areas with oxygen-enriched atmospheres from patient oxygen therapy creates fire risks that could affect patients unable to self-evacuate. Infection control breaches during installation work can introduce pathogens to immunocompromised patients. Work must proceed while maintaining continuous operation of existing medical gas systems, requiring complex isolation and temporary supply arrangements to ensure no interruption to patient care.

Consequence: Patient deaths or serious harm from service interruptions, infections, or fire events during installation work. Immediate project shutdown by hospital management and health departments. Criminal prosecution for causing death or serious harm to vulnerable persons. Permanent exclusion from healthcare construction work.

Brazing Fume Exposure in Confined Ceiling Spaces

Medium

Medical gas copper pipe joining requires silver brazing using high-temperature torches and silver-copper-phosphorous brazing alloys. This work frequently occurs in ceiling spaces, service ducts, and confined areas with limited ventilation. Brazing generates metal fumes including copper, silver, and flux compounds that accumulate in confined spaces reaching hazardous concentrations. Prolonged exposure to brazing fumes causes metal fume fever presenting with flu-like symptoms, while chronic exposure can result in respiratory sensitisation and long-term lung damage. Ceiling spaces often contain other trade materials including fibreglass insulation that becomes airborne when disturbed, compounding respiratory exposure risks.

Consequence: Acute metal fume fever requiring medical treatment and time off work, chronic respiratory conditions including occupational asthma, long-term lung function impairment, and potential development of chronic obstructive pulmonary disease from repeated exposures over career duration.

Pressure Testing Equipment Failure and High-Pressure Gas Release

Medium

Medical gas systems undergo rigorous pressure testing at 1.5 times working pressure, with oxygen systems tested to 1050 kPa. This creates stored energy in the pipework that can be explosively released if connections fail, if testing equipment malfunctions, or if isolation valves are inadvertently opened during testing. High-pressure nitrogen used for purging and testing creates asphyxiation risks in confined spaces if released in areas with inadequate ventilation. Pressure gauges and test equipment subjected to repeated high-pressure cycles can fail suddenly releasing pressurised gas. Workers in proximity to pressure testing operations face injury risks from whipping hoses, projectile fittings, and rapid pressure releases.

Consequence: Severe impact injuries from whipping high-pressure hoses, lacerations from failed fittings becoming projectiles, hearing damage from sudden pressure releases in confined spaces, and asphyxiation from nitrogen displacement of oxygen in poorly ventilated areas. Potential system damage requiring extensive rework and project delays.

Manual Handling of Medical Gas Manifolds and Cylinders

Medium

Medical gas systems require installation of supply manifolds, cylinder banks, and large medical gas cylinders. Oxygen manifolds incorporating multiple cylinders with automatic changeover systems can weigh several hundred kilograms requiring mechanical lifting equipment and team handling. Individual medical gas cylinders weigh 50-70kg and require careful manual handling to prevent crushing injuries to feet and hands. Manifold installation in plantrooms often involves confined access, elevated platforms, and awkward positioning against walls. Cylinder handling on multiple levels requires navigation of stairs or ramps with loaded trolleys creating tip-over and crushing risks.

Consequence: Musculoskeletal injuries particularly to lower back and shoulders from lifting heavy manifold components, crushing injuries to feet and hands from dropped cylinders, and serious traumatic injuries if manifolds or cylinder banks collapse during installation due to inadequate support or securing methods.

Control measures

Deploy layered controls aligned to the hierarchy of hazard management.

Implementation guide

Dedicated Oil-Free Tools and Contamination Prevention Protocol

Engineering Control

Establish dedicated tool sets exclusively for medical gas work that are maintained completely oil-free throughout their service life. Use purpose-built medical gas tube cutters with oil-free cutting wheels, dedicated deburring tools never used on other plumbing work, and oil-free threading equipment. Store medical gas tools in sealed containers between uses to prevent contamination. Implement strict contamination prevention protocols including hand washing procedures before handling any medical gas components, use of powder-free nitrile gloves during pipe handling, and immediate sealing of cut pipe ends with approved plugs or tape to prevent ingress of dust or debris. Maintain nitrogen purging during all brazing operations to prevent internal oxidation scale formation.

Implementation

1. Procure and permanently mark dedicated tool sets for medical gas work only; never use these tools on standard plumbing or gas fitting work 2. Clean all medical gas tools with alcohol wipes before each use; verify oil-free status visually and by touch 3. Store medical gas tools in sealed plastic containers with indicator cards showing last cleaning date 4. Establish hand washing stations at medical gas work areas; require all workers to wash hands before handling pipe or fittings 5. Issue powder-free nitrile gloves to all workers; replace gloves if contaminated with any substances 6. Immediately seal all cut pipe ends with approved plastic plugs or clean polyethylene tape until ready for joining 7. Maintain continuous low-flow nitrogen purge through pipes during brazing to prevent oxidation scale 8. Use only approved oil-free silver brazing alloys and flux compounds suitable for medical gas applications 9. Wipe internal pipe surfaces with alcohol swabs before final connections; verify clean white swab after wiping 10. Document contamination control procedures in daily work logs including hand washing compliance and tool cleaning

Colour-Coded Pipe Identification and Cross-Connection Prevention System

Engineering Control

Implement rigorous pipe identification using AS/NZS 2896 colour coding throughout all installation phases. Mark all pipes with continuous colour bands at minimum 1.5 metre intervals and at all joints, penetrations, and changes of direction. Use different coloured cable ties to bundle separate gas systems preventing accidental cross-connection during installation. Install gas-specific outlet fittings that are mechanically incompatible between gas types, making cross-connection physically impossible. Require independent verification of all connections before concealment, with photographic documentation showing correct gas type at every outlet location.

Implementation

1. Apply AS/NZS 2896 colour coding - Oxygen WHITE, Medical Air BLACK, Vacuum YELLOW, Nitrous Oxide BLUE, Nitrogen GREY 2. Mark pipes with 50mm colour bands at 1.5m maximum intervals using approved pipe identification paint or tape 3. Apply colour identification before pipe installation; verify colour coding remains visible after installation 4. Use colour-coded cable ties matching gas types to bundle pipes; never mix different gas types in same bundle 5. Install gas-specific outlet fittings - NIST for oxygen, DISS for medical air, ensuring mechanical incompatibility between gases 6. Label all valves with gas type, pressure rating, and area served using permanent engraved labels 7. Create installation photographic record showing colour coding at every joint and outlet before concealment 8. Require independent person to verify gas type at every outlet before connection; document verification in commissioning records 9. Install final outlet covers only after gas purity testing confirms correct gas at each location 10. Provide colour-coded system drawings to hospital engineering showing all pipe routes and outlet locations

Healthcare Facility Work Permit and Patient Safety Protocol

Administrative Control

Implement comprehensive work permit systems coordinated with hospital management, infection control, and clinical engineering departments before commencing any work in operational healthcare areas. Obtain hot work permits for all brazing operations with specific approval for work in areas with oxygen therapy or flammable gas storage. Establish exclusion zones around work areas preventing patient access and protecting vulnerable patients from noise, dust, and fumes. Schedule high-impact work including pressure testing and system commissioning during periods of lowest patient census in consultation with clinical managers. Develop emergency procedures addressing medical emergencies occurring near work areas requiring immediate evacuation and access for clinical response teams.

Implementation

1. Meet with hospital management minimum 48 hours before work commencement; obtain written work permits 2. Submit work plans including hot work locations, noise-generating activities, and required service isolations 3. Coordinate with infection control for hand hygiene requirements, restricted area access, and protective clothing 4. Obtain hot work permits daily for brazing operations; verify no oxygen therapy occurring in adjacent patient areas 5. Establish physical barriers or screens around work areas preventing patient access and containing dust/debris 6. Schedule pressure testing during overnight hours when patient census is lowest; notify all clinical areas before testing 7. Implement quiet work protocols near patient care areas - no unnecessary noise, use hand tools where possible 8. Maintain emergency evacuation routes clear at all times; never block corridors or exits with materials or equipment 9. Carry personal radios or phones enabling immediate contact with hospital security for medical emergency response 10. Suspend work immediately if medical emergency occurs nearby; evacuate area and allow clinical teams unrestricted access

Forced Ventilation for Brazing Operations in Confined Ceiling Spaces

Engineering Control

Provide mechanical ventilation for all brazing operations in ceiling spaces, service ducts, and confined areas. Use portable extraction fans positioned to draw brazing fumes away from worker breathing zones. Conduct atmospheric monitoring before entry to confined ceiling spaces and continuous monitoring during work to verify oxygen levels remain above 19.5% and that toxic fume concentrations remain below exposure limits. Implement work-rest cycles for prolonged brazing work allowing workers to exit confined spaces to fresh air environments.

Implementation

1. Position portable extraction fans at ceiling access points before workers enter confined spaces 2. Use flexible ducting to direct extraction to worker brazing locations; draw fumes away from breathing zone 3. Test atmosphere in ceiling spaces before entry using calibrated multi-gas monitor; verify oxygen >19.5% 4. Maintain continuous atmospheric monitoring during all confined space brazing work 5. Provide workers with personal fume extraction nozzles for close capture of brazing fumes at source 6. Implement 45-minute work, 15-minute rest cycles for confined space brazing; rest periods in fresh air 7. Evacuate ceiling spaces immediately if monitoring shows oxygen <19.5% or elevated fume concentrations 8. Prohibit confined space entry for brazing work when ventilation cannot adequately control fume concentrations 9. Provide respiratory protection (half-face respirators with P2 filters) for brazing in marginally ventilated spaces 10. Document atmospheric monitoring results in confined space entry permits; record oxygen levels at 30-minute intervals

Pressure Testing Safety Protocol with Exclusion Zones

Administrative Control

Establish formal pressure testing procedures including pre-testing equipment inspection, staged pressure increases, exclusion zones preventing worker exposure to high-pressure releases, and controlled depressurisation methods. Use pressure relief valves set above test pressure but below pipe burst pressure to prevent over-pressurisation. Conduct pressure testing during designated times when minimal personnel are in building. Require all connections and test equipment to be inspected by qualified person before pressurisation. Implement lockout/tagout procedures on all isolation valves during testing to prevent inadvertent opening under pressure.

Implementation

1. Inspect all test equipment including hoses, gauges, regulators, and connections before each pressure test 2. Verify pressure relief valve is installed and set to 120% of test pressure to prevent over-pressurisation 3. Conduct visual inspection of all pipe joints before testing; tighten any visibly loose connections 4. Establish exclusion zone minimum 5 metres around pressure testing area; erect barrier tape and warning signs 5. Increase pressure in stages - 25%, 50%, 75%, then full test pressure; hold each stage for 5 minutes checking for leaks 6. Prohibit any personnel within exclusion zone during pressurisation and test hold period 7. Apply lockout/tagout devices to all system isolation valves during testing; only authorised tester may remove locks 8. Maintain test pressure for minimum hold period specified in AS/NZS 2896; document pressure readings at required intervals 9. Depressurise slowly using controlled pressure relief valve; never rapidly release high-pressure gas 10. Only enter test area after complete depressurisation verified on gauges; inspect joints for leak evidence

Mechanical Lifting Equipment for Manifolds and Team Handling for Cylinders

Engineering Control

Use appropriate mechanical lifting equipment including engine hoists, gantry cranes, or chain blocks for all manifold installations. Never attempt manual handling of assembled manifolds or multiple-cylinder banks. Implement minimum three-person team handling for individual medical gas cylinders using purpose-built cylinder trolleys with securing chains. Provide cylinder storage racks at work areas preventing cylinders falling or rolling. Design manifold support structures with adequate load capacity for cylinder weights plus safety factors.

Implementation

1. Assess manifold weight before installation; procure appropriate lifting equipment rated for load plus 50% safety factor 2. Use engine hoist or gantry crane to lift manifold assemblies; secure with appropriate slings and shackles 3. Verify manifold support framework is structurally adequate before placing loaded manifold 4. Provide cylinder trolleys with securing chains for transporting medical gas cylinders; secure all cylinders during transport 5. Implement three-person team handling for cylinders - one person guides trolley, two persons assist on stairs or ramps 6. Store cylinders in purpose-built racks with chain restraints preventing toppling; never lean cylinders against walls 7. Position manifolds allowing adequate access for cylinder changes without requiring awkward manual handling 8. Use mechanical assistance for connecting cylinders to manifolds - cylinder lifters for overhead connections 9. Ensure all personnel involved in cylinder handling wear steel-cap boots for foot protection 10. Never roll cylinders or drop from height; impacts can damage cylinder valves creating high-pressure gas release risks

Personal Protective Equipment for Medical Gas Installation

Personal Protective Equipment

Provide comprehensive PPE including powder-free nitrile gloves for contamination prevention, safety glasses with side shields for eye protection during cutting and brazing, respirators for brazing fume exposure, hearing protection for cutting and pressure testing operations, and steel-cap boots for cylinder handling. Require clean work clothing daily to prevent contamination transfer to medical gas components. Provide disposable coveralls when working in sterile or infection-controlled hospital areas.

Implementation

1. Issue powder-free nitrile gloves (AS/NZS 2161.10.2) for all workers handling medical gas pipe and fittings 2. Provide safety glasses with side shields (AS/NZS 1337) for eye protection during cutting, grinding, and brazing 3. Supply half-face respirators with P2 particulate filters for brazing fume protection in confined spaces 4. Issue Class 3 hearing protection (AS/NZS 1270) for cutting operations and high-pressure testing activities 5. Require steel-cap safety boots (AS/NZS 2210.3) for all workers involved in cylinder or manifold handling 6. Provide flame-resistant coveralls for workers conducting brazing operations 7. Issue disposable coveralls and shoe covers when working in infection-controlled hospital areas 8. Require daily change of work clothing; prohibit contaminated clothing from being taken to clean work areas 9. Provide hand sanitiser and require use before entering patient care areas in operational hospitals 10. Replace all PPE when damaged, contaminated, or at scheduled service intervals; maintain PPE inspection records

Download complete control procedures

Personal protective equipment

Requirement: Medical-grade nitrile per AS/NZS 2161.10.2

When: When handling all medical gas pipes, fittings, and components to prevent contamination transfer from hands to pipe internals

Requirement: Medium impact rated per AS/NZS 1337

When: During all cutting, grinding, deburring, brazing, and pressure testing operations to protect against flying particles and molten metal

Requirement: Half-face P2 particulate respirator per AS/NZS 1716

When: When conducting brazing operations in confined ceiling spaces or areas with inadequate natural ventilation

Requirement: Class 3 protection per AS/NZS 1270

When: During pipe cutting operations, grinding, and high-pressure testing activities generating noise above 85dB(A)

Requirement: Category 1 impact protection per AS/NZS 2210.3

When: Throughout all medical gas installation activities particularly during cylinder handling and manifold installation

Requirement: Category 2 flame resistance per AS/NZS 4824

When: When conducting brazing operations particularly in ceiling spaces or areas with combustible materials

Requirement: Hospital-grade barrier protection

When: When working in infection-controlled hospital areas including operating theatre zones and immunocompromised patient areas

Inspections & checks

Before work starts

  • ✓Verify all medical gas tools are clean, oil-free, and stored in sealed containers; inspect tools for contamination before use
  • ✓Confirm nitrogen supply bottles are connected and regulators functional for purging during brazing operations
  • ✓Inspect all copper pipe for seal integrity; verify pipe ends remain capped preventing internal contamination
  • ✓Check brazing equipment including torches, regulators, and alloys; verify approved medical-grade materials in use
  • ✓Review work permits for healthcare facility access, hot work authorisation, and infection control requirements
  • ✓Verify pressure testing equipment is calibrated within service intervals; inspect hoses and gauges for damage
  • ✓Confirm atmospheric monitoring equipment for confined spaces is calibrated and functional
  • ✓Verify mechanical lifting equipment for manifolds is rated for loads and inspected within service intervals
  • ✓Inspect cylinder trolleys and storage racks for securing chains and wheel functionality
  • ✓Confirm all workers hold current medical gas installation licences and have completed hospital induction training

During work

  • ✓Monitor contamination control procedures; verify workers wash hands before handling pipe and fittings
  • ✓Check nitrogen purge flow is maintained during all brazing operations preventing internal oxidation
  • ✓Verify colour coding is applied to pipes immediately after cutting; check colour bands are correct for gas type
  • ✓Monitor brazing operations for fume generation; confirm extraction ventilation is operating effectively
  • ✓Inspect completed brazed joints for evidence of contamination, excessive flux residue, or inadequate penetration
  • ✓Verify all pipe ends are immediately sealed after cutting and remain sealed until joining operations
  • ✓Check work areas in operational hospitals for noise impacts on patients; adjust methods if complaints received
  • ✓Monitor pressure testing exclusion zones; ensure no personnel enter areas during pressurisation
  • ✓Verify gas-specific outlet fittings match pipe colour coding before installation; prevent cross-connection errors
  • ✓Document all installation steps photographically before concealment including colour coding and joint locations

After work

  • ✓Conduct comprehensive visual inspection of all accessible joints for brazing quality and contamination evidence
  • ✓Verify pressure testing documentation is complete including hold periods, pressure readings, and leak detection results
  • ✓Confirm all pipe identification is complete, accurate, and permanently marked per AS/NZS 2896 requirements
  • ✓Inspect outlet locations to verify gas-specific fittings match intended gas type based on colour coding
  • ✓Review photographic installation records ensuring complete documentation before concealment of pipework
  • ✓Verify all isolation valves are labelled with gas type, pressure rating, and areas served
  • ✓Confirm system purging has removed all contaminants and test gases before final commissioning
  • ✓Complete independent verification by certified verifier before system handover; obtain verification certificates
  • ✓Provide hospital engineering with complete as-built drawings, test results, and commissioning documentation
  • ✓Conduct final gas purity testing at all outlets confirming correct gas type and medical-grade purity levels

Step-by-step work procedure

Give supervisors and crews a clear, auditable sequence for the task.

Field ready

Pre-Installation Planning and Hospital Coordination

Meet with hospital management, clinical engineering, infection control, and relevant clinical departments to plan medical gas installation work. Review hospital policies covering contractor access, infection control requirements, work permit systems, and emergency procedures. Obtain all necessary work permits including general access permits, hot work permits for brazing operations, and confined space permits for ceiling work. Identify restricted areas including operating theatres, intensive care units, and isolation rooms where special protocols apply. Establish communication protocols with hospital staff including emergency contact numbers and procedures for medical emergencies occurring near work areas. Review existing medical gas systems and identify isolation points for connections to new installations. Schedule high-impact work including pressure testing and commissioning activities during periods of lowest patient census. Arrange for temporary medical gas supplies if work requires isolation of existing systems serving patient care areas. Verify all workers have completed required hospital induction training and hold current medical gas installation licences. Establish material and equipment storage areas preventing contamination and maintaining security of cylinders and valuable components.

Safety considerations

Understand hospital emergency procedures and evacuation routes. Ensure all workers complete hand hygiene training and understand infection control requirements. Verify work permits clearly identify hot work restrictions in areas with oxygen therapy or flammable gas storage. Establish immediate communication methods with hospital security for medical emergency response requiring evacuation of work areas.

Material Receiving, Inspection, and Contamination Prevention Setup

Receive medical-grade copper pipe and fittings verifying certification documentation confirming material compliance with AS/NZS 2896 specifications for medical gas applications. Inspect all pipe for seal integrity - pipe must arrive with sealed ends preventing internal contamination. Reject any pipe with broken seals or evidence of contamination. Establish dedicated storage area for medical gas materials maintaining sealed conditions until immediately before use. Set up contamination prevention station including hand washing facilities, powder-free glove supply, and approved sealing materials for cut pipe ends. Prepare oil-free tools exclusively for medical gas work; clean all tools with alcohol wipes before use. Inspect brazing alloys and flux compounds confirming medical gas approval and oil-free composition. Verify nitrogen supply is medical-grade or oxygen-free nitrogen suitable for purging operations. Prepare staging areas in hospital allowing material delivery to work locations while maintaining contamination control. Apply colour coding identification materials matching AS/NZS 2896 standards for all gas types being installed. Photograph all materials on arrival creating quality records of sealed pipe and certified components.

Safety considerations

Store medical gas cylinders in secure racks with chain restraints preventing unauthorised access and toppling risks. Maintain strict segregation between medical gas tools and standard plumbing equipment preventing cross-contamination. Establish clear protocols prohibiting eating, drinking, or smoking in medical gas work areas. Verify all workers understand contamination prevention is critical for oxygen fire prevention and patient safety.

Pipe Cutting, Deburring, and End Sealing with Contamination Control

Wash hands thoroughly before handling medical gas pipe. Don powder-free nitrile gloves before removing pipe end seals. Measure and mark pipe to required lengths using permanent marker. Cut pipe using dedicated oil-free pipe cutter; ensure cutting wheel is clean and free from lubricants. Immediately after cutting, deburr both internal and external edges using oil-free deburring tool removing all sharp edges and metal fragments. Wipe internal pipe surface with clean alcohol swab removing any cutting debris; verify clean white swab after wiping. Immediately seal cut pipe end with approved plastic plug or clean polyethylene tape preventing contamination ingress. Apply colour coding identification band to pipe immediately after cutting using correct colour for gas type per AS/NZS 2896 - Oxygen WHITE, Medical Air BLACK, Vacuum YELLOW, Nitrous Oxide BLUE. Mark pipe with permanent identification including gas type, pressure rating, and installation date. Stage prepared pipe in clean area on protective covering preventing ground contamination. Never place unsealed pipe ends on ground or contaminated surfaces. Replace gloves if contaminated during cutting operations. Document cutting operations including number of pipe sections prepared and contamination control compliance.

Safety considerations

Wear safety glasses during cutting and deburring operations. Ensure cutting area is well-lit for accurate measurements and clean cuts. Position body safely during cutting avoiding awkward postures in confined spaces. Collect metal swarf and debris preventing contamination of work area. Verify colour coding applied matches gas system design drawings before proceeding to installation.

Pipe Installation, Support, and Routing in Healthcare Facility

Install medical gas pipework following approved drawings showing pipe routes, support locations, and outlet positions. Maintain separation between different gas systems preventing cross-connection during installation - use colour-coded cable ties bundling same gas types only. Install pipe supports at maximum 1.5 metre spacing for horizontal runs and 2 metre spacing for vertical runs using appropriate pipe clips or brackets. Ensure support methods prevent galvanic corrosion between copper pipe and dissimilar metals using insulating grommets or plastic-lined clips. Route pipes maintaining minimum clearances from electrical services, hot water pipes, and structural elements. Install pipe sleeves at all wall and floor penetrations allowing pipe movement and preventing damage from building settlement. Maintain continuous colour identification bands at 1.5 metre maximum spacing and at all direction changes, joints, and penetrations. Label all isolation valves with gas type, area served, and operating instructions using permanent engraved labels. Install valves in accessible locations allowing operation without requiring access equipment. Photograph all pipe routes before concealment documenting support locations, colour coding, and valve positions for as-built records. Maintain contamination control throughout installation keeping pipe ends sealed until immediately before joining operations. Coordinate with other trades preventing interference between medical gas pipes and building services. In operational hospital areas, minimise noise during installation using hand tools where possible and scheduling impact work for low patient census periods.

Safety considerations

Wear appropriate PPE including hard hat if working in construction areas with overhead hazards. Use appropriate access equipment for overhead pipe installation; maintain three points of contact on ladders. Verify ceiling spaces have adequate lighting before entering confined areas. Maintain communication with hospital staff before conducting noisy work near patient areas. Ensure emergency access routes remain clear; never block corridors or exits with materials or equipment.

Brazing Operations with Nitrogen Purging and Fume Control

Set up brazing operation using approved medical-grade silver brazing alloy and oil-free flux suitable for medical gas applications. Connect nitrogen purge line to pipe system establishing low-flow purge through pipe sections being brazed preventing internal oxidation scale formation. Verify nitrogen flow at opposite end of pipe section before commencing brazing. For ceiling space work, establish mechanical ventilation using portable extraction fans drawing brazing fumes away from worker breathing zone. Conduct atmospheric monitoring before entering confined ceiling spaces verifying oxygen levels above 19.5%. Clean joint area with alcohol wipe removing any contamination before applying flux. Apply minimal flux to joint area - excess flux creates contamination requiring extensive cleaning. Assemble joint ensuring full insertion depth and alignment. Heat joint evenly using appropriate torch flame moving around circumference. Apply brazing alloy when joint reaches appropriate temperature indicated by flux colour change; allow capillary action to draw alloy into joint. Maintain nitrogen purge throughout heating and cooling cycle preventing oxidation. Allow joint to cool naturally; never quench with water as thermal shock can crack joints. Inspect completed joint for full penetration, smooth fillet formation, and absence of gaps or voids. Clean residual flux from joint exterior using damp cloth. Wipe joint interior with alcohol swab if accessible; verify clean swab. Document completed joints photographically before concealment. Maintain ventilation in ceiling spaces for minimum 15 minutes after completing brazing operations allowing fume dispersal.

Safety considerations

Wear flame-resistant coveralls and safety glasses during all brazing operations. Use respiratory protection (P2 respirator) when brazing in confined ceiling spaces. Verify adequate ventilation before and during brazing operations; evacuate if fume odours are strong. Keep fire extinguisher immediately available during all hot work. Verify hot work permits are current; check no oxygen therapy in adjacent patient areas before commencing brazing. Allow torch and pipe to cool before handling; use heat-resistant gloves if cooling time is insufficient. Position body safely during overhead brazing avoiding molten alloy drips.

Medical Gas Manifold Installation with Mechanical Lifting

Install medical gas manifolds in designated plant rooms providing centralised gas supply for distribution systems. Review manifold documentation including weight specifications, connection requirements, and manufacturer installation instructions. Assess manifold weight and procure appropriate mechanical lifting equipment - typically engine hoist or gantry crane for manifolds exceeding 100kg. Verify plant room has adequate structural support for manifold weight plus full cylinder load. Install manifold support framework using appropriate structural fixings; verify framework is level and adequately braced. Use mechanical lifting equipment to position manifold onto support framework. Connect manifold to pipeline system using appropriate brazing or compression fittings per manufacturer specifications. Install manifold pressure regulators and alarm systems according to manufacturer instructions and AS/NZS 2896 requirements. Connect cylinder supply lines to manifold ensuring gas-specific fittings prevent cross-connection errors. Label all manifold components including primary and secondary banks, isolation valves, and supply lines using permanent engraved labels. Install manifold pressure gauges and automatic changeover controls verifying correct operation. Provide adequate access around manifold for cylinder changes without requiring awkward manual handling. Install manifold alarm sensor lines connecting to building management system for pressure monitoring. Test manifold changeover function verifying automatic switching between primary and secondary cylinder banks. Document manifold installation photographically including all connections, labels, and alarm system integration.

Safety considerations

Use mechanical lifting equipment for all manifold handling; never attempt manual lifting of assembled manifolds. Verify lifting equipment is rated for manifold weight plus 50% safety factor. Ensure adequate personnel for guided lifting operations preventing manifold swinging or impact with plant room equipment. Verify all lifting slings and shackles are inspected and tagged within service intervals. Position manifold preventing crushing hazards during lowering onto support framework. Test manifold stability after installation before connecting cylinders.

System Pressure Testing with Exclusion Zones and Monitoring

Conduct pressure testing of installed medical gas systems per AS/NZS 2896 requirements verifying system integrity before commissioning. Inspect all test equipment including pressure gauges, hoses, regulators, and nitrogen supply cylinders verifying calibration currency and serviceability. Install pressure relief valve set to 120% of test pressure preventing over-pressurisation and potential pipe burst. Conduct visual inspection of all accessible joints and connections before pressurisation identifying any obviously loose fittings. Establish exclusion zone minimum 5 metres around test area; erect barrier tape and warning signage prohibiting entry during testing. Apply lockout/tagout devices to all system isolation valves preventing inadvertent opening under pressure. Connect test equipment to system ensuring all connections are secure and leak-free. Notify hospital staff of impending pressure test including expected duration and potential noise from pressure releases. Increase system pressure in stages - 25%, 50%, 75%, then full test pressure of 1.5 times maximum working pressure; hold each stage for 5 minutes checking pressure gauge for stability. Evacuate all personnel from exclusion zone during pressurisation and test hold period. Maintain test pressure for minimum hold period specified in AS/NZS 2896 (typically 24 hours for oxygen systems). Monitor pressure at required intervals documenting readings; investigate any pressure drops indicating leaks. After successful pressure hold, depressurise system slowly using controlled pressure relief valve preventing sudden pressure releases. Only enter test area after complete depressurisation verified on gauges. Conduct leak detection at all joints using approved methods - typically soapy water solution for preliminary checks followed by electronic leak detection. Document all test results including start pressure, hold period, pressure readings, and leak detection outcomes.

Safety considerations

Establish and maintain exclusion zones during all pressurisation activities. Never enter pressurised system areas; conduct all monitoring from outside exclusion zone. Verify lockout/tagout devices are in place before pressurisation preventing inadvertent valve operation. Use appropriate pressure relief valves preventing over-pressurisation beyond safe limits. Depressurise slowly preventing sudden pressure releases that could cause equipment whipping or projectile hazards. Wear hearing protection during pressure releases. Schedule pressure testing during low patient census periods minimising disturbance to hospital operations.

System Purging, Gas Purity Testing, and Final Commissioning

Conduct system purging removing all contaminants, test gases, and atmospheric air before introducing medical gases. Connect medical-grade nitrogen supply to system at multiple purge points. Establish purge flow through system venting at all outlet points progressively from furthest to nearest outlet. Maintain purge flow until oxygen analysers confirm nitrogen concentration exceeds 99% at all outlets indicating complete atmospheric air displacement. For oxygen systems, continue purging with oxygen-free nitrogen until subsequent oxygen purity testing. Replace nitrogen purge with actual medical gas from cylinders or bulk supply. Conduct gas purity testing at every outlet using calibrated gas analysers verifying correct gas type and medical-grade purity levels. For oxygen systems, verify oxygen concentration meets medical grade specifications (typically >99.5% O2). Test all other gas systems confirming correct gas type at each outlet preventing cross-connection errors. Verify gas-specific outlet fittings match gas type at each location. Test system pressures under flow conditions simulating clinical use verifying adequate pressure at all outlets. Activate all alarm systems and verify correct operation including low pressure alarms, high pressure alarms, and automatic changeover functions on manifolds. Verify building management system integration allowing remote monitoring of medical gas system status. Conduct independent verification by certified medical gas verifier reviewing all installation work, test results, and documentation. Obtain verification certificates confirming system compliance with AS/NZS 2896 before releasing for patient use. Provide comprehensive handover documentation to hospital clinical engineering including as-built drawings, test results, commissioning records, manufacturer documentation for all components, and operating instructions for manifolds and alarm systems. Conduct training for hospital engineering staff covering system operation, routine maintenance requirements, and emergency procedures.

Safety considerations

Maintain contamination control during purging operations; verify no cross-connection to other systems during purging. Use calibrated gas analysers for purity testing; verify analyser calibration currency. Conduct all gas purity testing in well-ventilated areas preventing asphyxiation from displaced atmospheric oxygen. Never bypass verification requirements; only certified verifiers may approve systems for patient use. Ensure all documentation is complete and accurate before system handover; incomplete commissioning can result in patient safety incidents.

Get risk assessment & procedures

Frequently asked questions

What specific qualifications and licencing are required for medical gas installation work in Australia?

Medical gas installation work requires specialised licencing beyond standard plumbing and gas fitting qualifications. Workers must hold a plumbing licence, a gas fitting licence (Type A or Type B depending on work scope), and a specific medical gas installation licence issued by the relevant state or territory plumbing regulator. Medical gas installation licences require demonstrated competency in AS/NZS 2896 standards, contamination prevention protocols, pressure testing procedures, and understanding of the critical patient safety implications of medical gas systems. Additionally, all medical gas installation work must be supervised by a qualified medical gas installer, and all installations must undergo independent verification by a certified medical gas verifier before systems can be commissioned for patient use. Verifiers must hold separate certification demonstrating competency in verification procedures and system commissioning requirements. Continuing professional development is typically required to maintain medical gas licences, ensuring installers remain current with standard updates and industry best practices.

How does AS/NZS 2896 differ from standard gas fitting requirements, and why are these differences critical?

AS/NZS 2896 imposes significantly more stringent requirements than standard gas fitting work due to the direct patient safety implications of medical gas systems. Critical differences include absolute contamination control requirements - all tools, materials, and workers' hands must be completely oil-free as oxygen system contamination causes fires and explosions. The standard mandates specific materials including medical-grade copper pipe and approved silver brazing alloys, prohibiting materials acceptable in standard gas fitting. Pressure testing requirements exceed standard gas work with extended hold periods and rigorous leak detection protocols. Colour coding and identification requirements prevent cross-connection between different gas types - errors that have directly caused patient deaths when incorrect gases were delivered to patients. The standard requires nitrogen purging during brazing to prevent internal oxidation scale that would contaminate gas systems. All work must undergo independent verification by certified verifiers before commissioning, unlike standard gas work where installer self-certification may suffice. Documentation requirements are extensive with permanent quality records maintained throughout system operational life. These differences reflect the reality that medical gas system failures directly impact vulnerable patients dependent on life support, making the consequences of installation errors catastrophic compared to standard gas fitting work where risks primarily affect property rather than lives.

What are the most common cross-connection errors in medical gas installations, and how can they be prevented?

The most catastrophic medical gas incidents have involved cross-connection errors where incorrect gases were delivered to patients. Common errors include physically connecting pipes serving different gases during installation, installing outlet fittings on incorrect gas lines (such as nitrous oxide outlets on oxygen pipes), labelling errors misidentifying gas systems, and colour coding mistakes during pipe marking. Prevention requires multiple layers of verification: rigorous colour coding applied immediately after cutting with continuous bands at 1.5m intervals using AS/NZS 2896 colours (Oxygen WHITE, Medical Air BLACK, Vacuum YELLOW, Nitrous Oxide BLUE), gas-specific outlet fittings that are mechanically incompatible between different gases making physical cross-connection impossible, photographic documentation showing colour coding and gas type at every joint and outlet before concealment, independent verification of gas type at every outlet before installation of final fittings, and comprehensive gas purity testing at commissioning confirming correct gas at each outlet using calibrated gas analysers. The verification process must be performed by independent certified verifiers not involved in installation work, providing objective assessment of system integrity. All workers must understand that cross-connection errors have directly caused patient deaths, creating legal liability including potential manslaughter charges for installers and verifiers who fail to prevent these errors.

What infection control requirements apply to medical gas installers working in operational hospitals?

Medical gas installers working in operational hospitals must comply with comprehensive infection control requirements protecting vulnerable patients from healthcare-associated infections. Hand hygiene is paramount - workers must wash hands or use alcohol-based hand sanitiser before entering patient care areas, after touching contaminated surfaces, and before any patient area contact. Personal protective equipment requirements vary by area: standard PPE (clean work clothes, safety boots) suffices in non-clinical areas, while work in operating theatre zones requires disposable coveralls, shoe covers, and surgical masks. Work in isolation rooms or immunocompromised patient areas requires additional barrier precautions specified by infection control staff. Tools and equipment must be cleaned before bringing into patient areas. Dust-generating activities require containment measures including plastic sheeting barriers and HEPA-filtered extraction preventing dust dispersal to patient areas. Workers with respiratory infections must not enter patient care areas until symptoms resolve. Waste from medical areas must be disposed of in hospital-approved containers following segregation requirements. Equipment storage must not occur in clinical areas - all materials and tools must be removed from patient areas daily. Hospital induction training typically covers these requirements, but medical gas installers must also understand the heightened vulnerability of hospital patients including immunocompromised individuals, surgical patients, and those with respiratory conditions. Infection control breaches during construction work have caused serious patient infections, with contractors held liable for introducing pathogens to healthcare environments.

What emergency procedures should be in place when conducting medical gas installation in occupied patient care areas?

Medical gas installation in occupied healthcare facilities requires comprehensive emergency procedures addressing multiple scenarios: Medical emergencies near work areas - all workers must carry communication devices (radios or phones) with emergency contact numbers for hospital security and code teams. If medical emergency occurs near work area, workers must immediately suspend all activities, evacuate the area removing all tools and equipment blocking access, and allow clinical response teams unrestricted access to the patient. Workers must never attempt to assist in medical emergencies unless specifically qualified (such as holding current first aid certification) and requested by clinical staff. Fire emergencies - given the presence of oxygen-enriched atmospheres from patient oxygen therapy and medical gas systems under installation, fire risk is elevated. Workers conducting hot work must have fire extinguishers immediately available and must verify no oxygen therapy is occurring in adjacent areas before brazing. If fire occurs, activate nearest alarm, notify hospital security, evacuate patients if safe to do so (following hospital evacuation procedures), and close doors containing fire spread. System failures - if existing medical gas systems experience failures during installation work, immediately notify hospital clinical engineering and affected clinical areas. Never attempt to restore service without clinical engineering approval. Maintain emergency backup procedures including portable oxygen cylinders for areas temporarily isolated during installation work. Pressure testing incidents - if high-pressure gas release occurs during testing, evacuate area, notify hospital security, and establish exclusion zone preventing access until system is completely depressurised. All emergency procedures must be established during pre-work planning with hospital management, with all workers briefed on emergency contact numbers and hospital-specific procedures before commencing work.

What documentation must be maintained for medical gas installations, and what is the retention period?

Medical gas installations require comprehensive documentation maintained throughout the system's operational life. Required records include: Material certifications - documentation for all copper pipe, fittings, brazing alloys, and components confirming compliance with AS/NZS 2896 medical-grade specifications; Installation photographic records - images showing colour coding, joint locations, valve positions, and outlet installations before concealment; Pressure testing records - complete test results including test pressure, hold period, pressure readings at specified intervals, depressurisation procedures, and leak detection results; Purging and gas purity testing - documentation of purging procedures and gas analysis results at every outlet confirming correct gas type and medical-grade purity; Independent verification certificates - certification by certified verifiers confirming installation compliance with AS/NZS 2896 standards; As-built drawings - complete system documentation showing all pipe routes, valve locations, outlet positions, and manifold configurations; Commissioning records - documentation of final system testing, alarm function verification, and handover to hospital engineering; Worker qualification records - evidence that all installers held current medical gas installation licences. These records must be retained permanently as part of hospital engineering documentation, as they provide critical information for future maintenance, modifications, and incident investigations. In the event of patient safety incidents involving medical gas systems, these records become critical evidence in investigations potentially including coronial inquiries and criminal prosecutions. Incomplete or inaccurate documentation can result in installer and verifier liability even if actual installation work was compliant, as verification cannot be demonstrated without comprehensive records.

Related SWMS documents

Browse all documents

plumbing

CCTV Drain Inspection Safe Work Method Statement

Comprehensive SWMS for CCTV drainage investigation including confined space entry, sewage exposure controls, camera equipment operation, and inspection reporting procedures.

View document

plumbing

Electric Fusion - Poly Pipe Butt Welding (PPW) Safe Work Method Statement

Comprehensive SWMS for electric fusion and butt fusion welding of polyethylene pipes including hot work controls, equipment operation, surface preparation, and pressure testing procedures.

View document

plumbing

Gas-Water Leak Detection Safe Work Method Statement

Comprehensive SWMS for gas and water leak detection including electronic detection equipment, acoustic listening, tracer gas methods, and emergency response procedures for gas and water system leaks.

View document

plumbing

Gross Pollutant Trap Cleaning Safe Work Method Statement

Comprehensive SWMS for gross pollutant trap cleaning including confined space entry, contaminated waste removal, vacuum equipment operation, and stormwater protection procedures.

View document

plumbing

Guided Boring Pipe Jacking Works Safe Work Method Statement

Comprehensive SWMS for guided boring and pipe jacking trenchless installation including service location, confined space entry, drilling equipment operation, and strike prevention procedures.

View document

plumbing

Pipeline Disinfecting Safe Work Method Statement

Comprehensive SWMS for disinfecting potable water pipeline systems using chlorination procedures, contact time protocols, water quality testing, and safe chlorinated water disposal methods.

View document
Trusted by 1,500+ Australian construction teams

Medical Gas Pipe System Installation SWMS Sample

Professional SWMS created in 5 seconds with OneClickSWMS

  • Instant PDF & shareable link
  • Auto-filled risk matrix
  • Editable Word download
  • State-specific compliance
  • Digital signature ready
  • Version history preserved
Manual creation2-3 hours
OneClickSWMS5 seconds
Save 99% of admin time and eliminate manual errors.
Generate SWMS NowView sample SWMS

No credit card required • Instant access • Unlimited drafts included in every plan

PDF Sample

Risk Rating

BeforeHigh
After ControlsLow

Key Controls

  • • Pre-start briefing covering hazards
  • • PPE: hard hats, eye protection, gloves
  • • Emergency plan communicated to crew

Signature Ready

Capture digital signatures onsite and store revisions with automatic timestamps.

Continue exploring

Hand-picked SWMS resources
Pipework MechanicalExplore →Plumbing Gas Fitting Safe Work Method StatementExplore →

Ready to deliver professional SWMS in minutes?

OneClickSWMS powers thousands of compliant projects every week. Join them today.

Join 2,000+ Protected CompaniesExplore Safety Guides