Comprehensive SWMS for Demolition and Removal of Existing Fit-Outs Before New Installations

Soft Demolition Safe Work Method Statement

2,000+ Australian Businesses Trust OneClickSWMS

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.

Soft demolition for shop fitting work involves the controlled dismantling and removal of existing retail and commercial fit-outs including partitions, suspended ceilings, cabinetry, floor coverings, fixtures, and finishes without damage to structural elements or services required to remain. This work prepares tenancies for new fit-out installations by stripping spaces back to base building condition or to specified retention points. Soft demolition differs from structural demolition through its selective nature, requirement to protect surrounding areas and occupancies, and focus on material salvage and waste segregation. The work manages hazards including asbestos discovery in older buildings, service isolation to prevent electrical shocks and service damage, manual handling of heavy components, dust generation, and stored energy release from fixtures under tension. This SWMS addresses the specific safety requirements for soft demolition in accordance with Australian WHS legislation, providing detailed hazard controls, asbestos awareness procedures, and step-by-step demolition methods to ensure worker safety and building protection.

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

Overview

What this SWMS covers

Soft demolition, also termed strip-out or make-good work, involves the systematic removal of non-structural building elements from retail and commercial premises to prepare spaces for new fit-outs or to return tenancies to base building condition for lease handback. This work encompasses removal of partitions, suspended ceilings, floor coverings, cabinetry, shopfront glazing, signage, fixtures, mechanical services, and applied finishes while protecting structural elements, building services to remain, and adjacent occupied tenancies. The selective nature of soft demolition requires careful planning, progressive inspection for concealed hazards, and controlled dismantling sequences preventing damage to retention items. Asbestos awareness represents a critical component of soft demolition planning in buildings constructed or refurbished before 2004 when asbestos use was prohibited in Australia. Asbestos-containing materials (ACMs) commonly found in retail fit-outs include vinyl floor tiles and backing sheets, ceiling tiles in suspended ceiling systems, wall sheeting particularly in wet areas, thermal and acoustic insulation, gaskets and seals in services, and adhesives bonding floor coverings or wall panels. Current legislation requires asbestos surveys before demolition or refurbishment work, with licensed asbestos assessors identifying and documenting all ACMs. Where asbestos is identified, removal must be conducted by licensed asbestos removalists for friable asbestos or asbestos exceeding 10 square metres. For small amounts of bonded asbestos (less than 10 square metres), appropriately trained personnel may conduct removal following strict procedures. All workers accessing demolition areas must complete asbestos awareness training understanding identification, health risks, and response protocols if unexpected asbestos is encountered. Service isolation forms a foundational safety requirement before soft demolition commences. Electrical services must be isolated at distribution boards by licensed electricians, with lockout devices preventing re-energisation. Gas supplies require isolation by licensed gas fitters at meters or manifolds with physical locks. Water services need closure at isolation valves with verification testing confirming zero pressure. HVAC systems may require isolation or reconfiguration if ductwork is being removed. Fire protection systems including sprinklers and smoke detection may need isolation with fire authority approval and compensating measures during work. Telecommunications and data cabling should be traced and disconnected preventing inadvertent damage to live systems. The complexity of service distribution in commercial buildings means isolation verification is essential - workers must not assume services are isolated without testing and confirmation. Cable detection equipment locates concealed services before penetrating surfaces or removing fixtures potentially concealing active services. Waste management and material segregation align with environmental legislation and waste levy minimization. Demolition waste should be segregated into recyclable materials including metals, timber, plasterboard, concrete, and glass; general waste for landfill disposal; and hazardous waste including asbestos, fluorescent tubes containing mercury, and materials contaminated with chemicals. Many councils and waste facilities impose substantial levy charges on mixed demolition waste sent to landfill - segregating recyclable materials reduces disposal costs significantly. Asbestos waste requires specialist disposal at licensed facilities with manifest documentation tracking waste from generation to final disposal. Careful planning of waste management including bin sizing, collection frequency, and material segregation protocols prevents work delays from inadequate waste capacity and reduces project costs through effective recycling and waste minimization.

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

Why this SWMS matters

Asbestos exposure during soft demolition of older retail fit-outs represents the most serious long-term health risk facing demolition workers. Asbestos fibres released during removal of ceiling tiles, vinyl flooring, or wall sheeting cause asbestosis, mesothelioma, and lung cancer with latency periods of 20-40 years between exposure and disease manifestation. There is no safe level of asbestos exposure - even single exposure events can result in disease decades later. Australian WHS legislation imposes strict duties on persons conducting businesses to identify asbestos before work, engage licensed removalists where required, provide asbestos awareness training to all workers, implement strict controls where asbestos is present, and maintain exposure below the workplace exposure standard of 0.1 fibres per millilitre measured over 8 hours. Recent prosecutions following asbestos exposure incidents have resulted in fines exceeding $250,000 for companies plus personal liability for directors and officers. Workers who develop asbestos-related diseases are entitled to substantial compensation often exceeding $500,000, with claims made against employers decades after exposure occurred creating long-tail liability exposure. Electrical contact incidents during soft demolition cause fatalities and serious injuries regularly. Workers removing ceiling tiles or wall panels contact energised electrical cables concealed above ceilings or within wall cavities. Demolishing partitions containing electrical outlets assumes outlets are de-energised when isolation has not occurred or wrong circuits were isolated. Cutting into walls or floors with power tools severs live electrical cables causing electric shock, arc flash, and potential electrocution. Many commercial buildings have complex electrical distribution with circuits serving multiple areas - isolating power to demolition area may not isolate all circuits present. Licensed electrician verification of electrical isolation is mandatory before soft demolition commences. Cable detection equipment must be used before any penetration of surfaces or removal of fixtures potentially concealing active electrical services. The widespread use of cordless power tools in demolition creates a false sense of electrical safety - while tools are battery powered, concealed building services remain energised unless properly isolated. Manual handling injuries during soft demolition create high workers compensation costs and lost time. Removing heavy cabinetry, countertops, partition components, and glazing involves repetitive lifting, carrying, and positioning of awkward loads in confined spaces. Demolition work compounds manual handling difficulty through lack of manufactured handles or grip points, dust and debris making surfaces slippery, confined access restricting optimal body positioning, and time pressure encouraging rushed movements and unsafe lifts. Ceiling tile removal requires sustained overhead work causing shoulder strain and neck injuries. Floor covering removal involves prolonged bending and kneeling loading lumbar spine and knee joints. The cumulative nature of demolition work means manual handling exposures accumulate over entire project duration. Without effective controls including mechanical aids, team lifting, task rotation, and adequate breaks, demolition workers develop chronic musculoskeletal disorders affecting their ability to continue manual work. Stored energy release from fixtures under tension or load creates struck-by and crushing hazards. Suspended ceilings under tension from hangers can collapse suddenly if support wires are cut before weight is controlled. Glazed shopfront systems under stress from building movement can shatter catastrophically during removal. Cabinetry secured to walls can swing violently when released if restraints are removed before weight is supported. Roller shutters under spring tension can rapidly retract if tension is not carefully released. Signs and suspended fixtures can fall causing struck-by injuries if inadequate temporary support is provided during removal. Each demolition activity requires assessment of potential stored energy with implementation of controlled release procedures preventing sudden uncontrolled movement of components. Comprehensive SWMS implementation ensures systematic hazard identification, service isolation verification, asbestos awareness, manual handling controls, and progressive work sequences managing these serious risks effectively.

Reinforce licensing, insurance, and regulator expectations for Soft Demolition 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

Exposure to Asbestos During Removal of Older Fit-Out Materials

High

Buildings constructed or refurbished before 2004 commonly contain asbestos in vinyl floor tiles and adhesives, ceiling tiles and backing, wall sheeting particularly in wet areas, thermal pipe lagging, and gaskets in services. Asbestos fibres become airborne when materials are disturbed during demolition creating inhalation exposure risk. Fibres are invisible to naked eye and have no odor or taste - workers cannot detect exposure without air monitoring. Even brief exposure to asbestos can cause fatal diseases including mesothelioma and lung cancer with latency periods of 20-40 years. Many workers who developed asbestos diseases had single or short-term exposures during demolition work. Without asbestos survey identifying ACMs before work, and appropriate controls during removal, workers face serious disease risk.

Consequence: Mesothelioma causing painful death typically 30-40 years after exposure with no effective cure, lung cancer and asbestosis reducing lung function and lifespan, pleural plaques causing breathing difficulty and chest pain, substantial compensation liability exceeding $500,000 per case, prosecution under WHS Act with fines exceeding $250,000 for corporations, and long-tail liability exposure decades after work completed.

Electrical Contact with Concealed Services During Demolition

High

Soft demolition exposes workers to electrical hazards from cables concealed within walls, ceilings, and floor cavities. Removing ceiling tiles, wall panels, or floor coverings can contact live electrical cables if services are not isolated. Cutting into partitions with reciprocating saws or demolition tools severs electrical cables causing electric shock and arc flash. Electrical outlets within partitions being demolished remain energised if wrong circuits isolated or if verification testing not conducted. Many commercial buildings have complex wiring with multiple circuits serving single areas - visual inspection alone cannot confirm all circuits isolated. Cable routing may not follow logical patterns with cables running horizontally, vertically, or diagonally within cavities.

Consequence: Electrocution causing cardiac arrest and death from contact with mains voltage, severe electrical burns requiring skin grafts and potentially amputation, arc flash injuries causing blindness and facial burns, secondary injuries from falls or muscular contractions following shock, fire ignition from electrical faults created during demolition, and prosecution for fatal electrical incidents.

Manual Handling Injuries from Repetitive Demolition Tasks

High

Soft demolition involves sustained manual handling removing cabinetry, benchtops, partition framing, ceiling components, and floor coverings. Materials lack manufactured handles requiring awkward grips. Demolished materials are often contaminated with dust and debris making surfaces slippery. Confined retail spaces restrict optimal body positioning during lifts forcing twisted postures and asymmetric loading. Ceiling tile removal requires sustained overhead reaching causing shoulder and neck strain. Floor covering removal involves prolonged stooping, kneeling, and bending loading lower back and knees. Time pressure in retail fit-outs encourages rushing and unsafe manual handling practices. Cumulative exposure throughout project duration creates substantial injury risk even if individual lifts appear manageable.

Consequence: Chronic lower back pain and lumbar disc degeneration limiting work capacity, shoulder rotator cuff injuries requiring surgical repair and extended recovery, knee cartilage damage from sustained kneeling during floor removal, acute strains requiring time off work, hernias from heavy lifting in awkward postures, and long-term musculoskeletal disorders potentially ending manual work careers.

Falling Through Ceiling Voids During Ceiling Demolition

High

Removing suspended ceiling tiles exposes ceiling voids where suspended ceiling grid framework supports workers' weight only if stepping on grid intersections or main runners. Stepping between grid members can cause fall through ceiling plasterboard or building paper below into occupied spaces or onto floor below from heights of 3-5 metres. Ceiling voids often contain services including cables, pipes, and ductwork creating trip hazards. Poor lighting in ceiling voids reduces visibility of safe stepping locations. Insulation batts in ceiling voids conceal unsafe stepping areas. Removing ceiling grid members eliminates safe pathways requiring careful sequencing to maintain safe access during progressive removal.

Consequence: Falls through ceilings from 3-5 metre heights causing fractures, spinal injuries, head trauma requiring hospitalization, secondary injuries striking services or edges during fall through ceiling, injuries to building occupants below if workers or materials fall into occupied spaces, and building damage requiring expensive repairs to ceilings and contents.

Respirable Dust from Cutting and Breaking Demolition Materials

Medium

Soft demolition generates substantial dust from breaking plasterboard, cutting timber framing, removing concrete or tile floor coverings, and demolishing masonry elements. Cutting concrete or masonry produces crystalline silica dust causing silicosis with workplace exposure standard of 0.05 mg/m³. Plasterboard creates gypsum dust irritating respiratory systems. Cutting or breaking fibre cement products in older buildings may release asbestos fibres if products contain asbestos. Demolition in enclosed retail spaces with limited ventilation concentrates airborne dust. Without effective suppression using water or dust extraction, workers and adjacent building occupants experience dust exposure exceeding safe levels.

Consequence: Silicosis from crystalline silica exposure causing progressive lung disease potentially fatal in severe cases, chronic respiratory irritation and bronchitis, aggravation of existing asthma or respiratory conditions, asbestos exposure if fibre cement products contain asbestos, complaints from adjacent tenants about dust migration affecting merchandise and customer experience, and potential prohibition notices from regulators if dust control inadequate.

Stored Energy Release from Loaded Fixtures and Glazing

Medium

Shopfront glazing under stress from building movement or wind loading can shatter explosively during removal if improper techniques used. Suspended ceilings can collapse suddenly if support wires cut before ceiling weight controlled. Heavy cabinetry fixed to walls can swing violently if released without temporary support. Roller shutters or overhead doors under spring tension can rapidly retract causing crush injuries if tension not carefully released. Signs and suspended fixtures can fall striking workers if inadequate temporary support provided during disconnection. Each fixture or component potentially stores mechanical, elastic, or gravitational energy requiring controlled release procedures.

Consequence: Severe lacerations from exploding glazing requiring surgical repair and potential permanent scarring, crush injuries from swinging cabinetry or falling fixtures, head and body trauma from ceiling collapses, hand injuries from spring-loaded mechanisms, struck-by injuries to ground workers from falling components, and property damage to retained building elements from uncontrolled component movement.

Control measures

Deploy layered controls aligned to the hierarchy of hazard management.

Implementation guide

Pre-Demolition Asbestos Survey by Licensed Assessor

Elimination

Eliminate asbestos exposure risk by conducting comprehensive asbestos survey of all areas subject to demolition before work commences. Licensed asbestos assessor inspects building identifying all asbestos-containing materials through visual inspection and laboratory analysis of samples. Survey report documents asbestos locations, quantities, condition, and friability with recommendations for removal or management. Where asbestos identified, engage licensed asbestos removalists for removal before other demolition work. For small amounts of bonded asbestos under 10 square metres, appropriately trained personnel may remove following strict procedures including wet removal methods, dedicated tools, sealed disposal, and air monitoring.

Implementation

1. Engage licensed asbestos assessor to conduct comprehensive survey of demolition area minimum 2 weeks before work commencement 2. Assessor inspects all areas including ceiling voids, wall cavities, floor substrates, and services likely to be disturbed during demolition 3. Assessor collects samples of suspected ACMs for laboratory analysis using NATA-accredited testing 4. Obtain asbestos survey report documenting all identified ACMs with locations, quantities, material type, and condition assessment 5. Where asbestos identified, engage licensed Class A or Class B asbestos removalist depending on asbestos type and quantity 6. Obtain asbestos removal clearance certificate from independent licensed assessor confirming all ACMs removed and area safe for occupation 7. Provide asbestos survey report and clearance certificate to all workers and subcontractors before demolition commences 8. Implement stop-work procedures if suspected asbestos discovered during work - cease work in affected area, isolate area, engage assessor for testing 9. Ensure all workers accessing demolition areas have completed asbestos awareness training per Safe Work Australia Code of Practice

Electrical Isolation Verification and Cable Detection

Elimination

Eliminate electrical contact risk through comprehensive electrical isolation by licensed electrician with lockout/tagout procedures preventing re-energisation. Cable detection equipment locates concealed electrical services before penetrating surfaces or removing fixtures. Voltage testing at multiple locations throughout demolition area verifies isolation effectiveness before work authorization. Isolation points remain locked throughout demolition period with clear documentation of what is isolated and restoration procedures.

Implementation

1. Engage licensed electrician to identify all electrical circuits within demolition area and determine isolation points 2. Electrician isolates circuits at distribution boards, installs lockout devices preventing circuit breaker closure, and applies isolation tags 3. Test isolation effectiveness using voltage detector at multiple locations throughout demolition area confirming zero voltage 4. Photograph lockout devices and maintain isolation register documenting circuits isolated, isolation point, date, and responsible person 5. Use cable detection equipment to scan all surfaces before penetration or fixture removal locating concealed electrical cables 6. Mark detected cable locations on surfaces preventing inadvertent contact during demolition work 7. Implement two-person verification for critical isolations - independent competent person confirms isolation before work commences 8. Maintain isolation throughout demolition period - only electrician who installed lockout may remove it after work complete 9. Provide voltage detectors to demolition crews for periodic verification testing during work ensuring isolation remains effective

Mechanical Demolition Tools and Lifting Equipment

Engineering Control

Provide mechanical tools and equipment reducing manual handling demands. Demolition hammers and reciprocating saws reduce manual effort breaking materials. Panel lifters and suction cup devices assist handling large sheets and glazing. Mobile bins or trolleys transport waste materials eliminating repetitive carrying. Pallet jacks move heavy cabinetry and components. These mechanical aids reduce physical demands and injury risk from sustained manual demolition work.

Implementation

1. Provide electric or pneumatic demolition hammers for breaking concrete, tiles, or masonry reducing manual sledgehammer work 2. Supply reciprocating saws or demolition saws for cutting framing, cabinetry, and partition components 3. Use panel lifters or suction cup devices for removing and handling large plasterboard sheets, glazing, or panel materials 4. Position mobile waste bins throughout work area allowing short carrying distances - relocate bins as work progresses 5. Provide hand trolleys or pallet jacks for moving heavy cabinetry, benchtops, or equipment to waste collection points 6. Use wheelbarrows or rubbish bins on wheels for transporting smaller demolished materials reducing repetitive carrying 7. Implement team lifting protocols for items exceeding 20kg - minimum two person lifts with clear role assignments 8. Schedule regular breaks every 2 hours during sustained demolition work allowing physical recovery 9. Rotate workers between different demolition tasks varying physical demands - alternate between overhead ceiling work, floor removal, and partition demolition

Water Suppression and Dust Extraction During Cutting

Engineering Control

Suppress dust generation using water spray during cutting operations and demolition activities creating airborne dust. Water-fed cutting equipment for concrete or masonry demolition suppresses silica dust at source. Spray bottles maintain dampness on materials during breaking or removal. Dust extraction on power tools captures dust before becoming airborne. Negative air pressure systems in work areas contain dust preventing migration to adjacent spaces.

Implementation

1. Use water spray bottles or garden sprayers to dampen materials before and during demolition reducing airborne dust generation 2. Provide water-fed cutting equipment for any concrete or masonry cutting operations suppressing silica dust at source 3. Connect power tools to HEPA-filtered vacuum extractors when cutting plasterboard, timber, or other materials indoors 4. Wet mop floors and spray surfaces during demolition work maintaining dampness preventing dust becoming airborne from foot traffic 5. Install plastic sheeting barriers at work area perimeters creating containment with overlapping joints preventing dust escape 6. Use negative air pressure machines with HEPA filtration drawing air from work area and exhausting filtered air preventing dust migration 7. Schedule high dust-generation activities during times when adjacent retail tenancies closed reducing exposure to others 8. Monitor visible dust accumulation on barriers and surfaces - increase suppression measures if control appears inadequate 9. Prohibit dry sweeping which disperses settled dust - use wet cleaning methods or HEPA vacuum cleaners for cleanup

Ceiling Access Platforms and Safe Stepping Procedures

Engineering Control

Provide safe working platforms for ceiling demolition eliminating need to step on suspended ceiling grid framework. Mobile scaffold platforms, planks spanning ceiling grid main runners, or elevated work platforms provide stable working surfaces. Where stepping on ceiling grid is unavoidable, establish clear procedures identifying safe stepping locations on main grid intersections or runners. Progressive installation of temporary support as ceiling components removed maintains safe access during dismantling.

Implementation

1. Provide mobile scaffold platforms or elevated work platforms for ceiling demolition providing stable working surface above ceiling level 2. Install scaffold planks or temporary decking spanning ceiling grid main runners creating safe walkways in ceiling voids 3. If stepping on ceiling grid unavoidable, clearly mark safe stepping locations on main grid intersections using colored tape 4. Brief workers on ceiling grid construction identifying main runners (safe stepping) versus cross tees (unsafe stepping) 5. Remove ceiling tiles in sections maintaining grid framework until work area reduced to manageable size 6. Install additional temporary supports as original ceiling hangers removed maintaining safe load capacity during progressive demolition 7. Provide adequate lighting in ceiling voids using temporary light towers or work lights illuminating safe stepping areas 8. Prohibit storing materials or tools on ceiling grid - grid framework cannot support concentrated loads 9. Establish exclusion zones below ceiling demolition areas preventing personnel beneath areas where ceiling components being removed

Controlled Dismantling Procedures for Loaded Components

Administrative Control

Implement documented procedures for removing fixtures and components potentially under load or storing energy. Procedures specify inspection for stored energy, installation of temporary support before releasing fixings, controlled release of tension in spring-loaded mechanisms, and team coordination during removal of heavy or awkward components. Pre-removal assessment identifies potential energy storage requiring specific controls before dismantling commences.

Implementation

1. Assess each fixture or component before removal identifying potential stored energy from gravity loading, spring tension, or structural stress 2. Install temporary support props or bracing before removing fixings from heavy cabinetry, glazing, or suspended components 3. For spring-loaded shutters or doors, carefully release tension using manufacturer procedures or engage specialist contractor for removal 4. Remove glazed panels using suction cups and two-person minimum teams - never rely solely on edge grip which can fail 5. Support suspended ceilings with temporary props before cutting hanger wires preventing sudden collapse 6. Disconnect services and remove stored materials from cabinetry before removal reducing weight and eliminating falling contents hazard 7. Brief team members on removal sequence and individual responsibilities before commencing removal of heavy or complex components 8. Establish clear hand signals or verbal communication protocols for coordinated lifts and positioning during removal 9. Lower removed components to ground level immediately - do not stage at height creating falling hazard

PPE for Soft Demolition Activities

Personal Protective Equipment

Provide comprehensive PPE for demolition work including respiratory protection for dust exposure, safety glasses for eye protection, cut-resistant gloves for handling materials with sharp edges, hearing protection for noisy demolition equipment, steel cap boots for foot protection, and disposable coveralls preventing dust and debris contamination of clothing. PPE selection must match specific hazards with regular inspection ensuring serviceability.

Implementation

1. Provide P2 respirators (AS/NZS 1716) for all demolition work generating dust - half-face respirators or disposable P2 masks properly fitted 2. Supply safety glasses or goggles (AS/NZS 1337) protecting against dust, debris, and impact from demolition activities 3. Issue cut-resistant gloves (AS/NZS 2161.4) for handling demolished materials with sharp edges, broken glass, or metal components 4. Require hearing protection (AS/NZS 1270) rated Class 3 or 4 when using demolition hammers, saws, or impact tools 5. Ensure steel cap safety boots (AS/NZS 2210.3) worn protecting against dropped materials and penetration from exposed fixings 6. Provide disposable coveralls for demolition work preventing dust contamination of personal clothing and facilitating decontamination 7. Supply hard hats (AS/NZS 1801) when demolishing ceiling components creating overhead falling hazard 8. Inspect respirator fit and seal - conduct user seal checks before each use ensuring adequate face seal excluding beards or facial hair 9. Replace disposable respirators daily or when breathing resistance increases indicating filter loading

Personal protective equipment

Requirement: P2 particulate filter per AS/NZS 1716

When: Throughout all demolition activities generating dust including ceiling removal, partition demolition, floor covering removal, and cutting operations

Requirement: Medium impact rated per AS/NZS 1337

When: During all demolition work protecting against dust, debris, and impact from breaking materials, cutting operations, and overhead work

Requirement: Level 3 or 4 cut resistance per AS/NZS 2161.4

When: When handling demolished materials with sharp edges, broken glass, exposed screws and fixings, or metal components throughout demolition work

Requirement: Class 3 or 4 protection per AS/NZS 1270

When: When operating demolition hammers, reciprocating saws, impact tools, or other noise-generating equipment exceeding 85dB(A)

Requirement: Category 1 impact protection per AS/NZS 2210.3

When: Throughout all demolition work protecting against dropped materials, falling components, and penetration from exposed nails or screws

Requirement: Type 5 particulate protection per AS/NZS 4501.2

When: During demolition work generating substantial dust or when asbestos removal procedures require additional contamination control

Requirement: Type 1 industrial safety helmet per AS/NZS 1801

When: When removing ceiling components, working beneath elevated demolition activities, or when overhead falling hazards exist

Inspections & checks

Before work starts

  • Obtain and review asbestos survey report confirming ACM identification and removal status before any demolition commences
  • Verify electrical isolation by licensed electrician with lockout devices installed and voltage testing confirming zero volts throughout work area
  • Confirm gas, water, and other service isolations complete with signed isolation certificates documenting isolation points
  • Inspect work area identifying structural elements to protect during demolition - mark clearly with colored tape or barriers
  • Check availability of appropriate demolition tools, PPE, waste bins, and dust suppression equipment before work starts
  • Review building drawings or previous inspection identifying any unusual conditions, concealed spaces, or potential hazards
  • Verify waste management arrangements including bin delivery, material segregation requirements, and collection schedules
  • Confirm exclusion zones established preventing public or adjacent tenant access to demolition area during work

During work

  • Monitor dust control effectiveness - increase water suppression or ventilation if visible dust accumulation or airborne dust observed
  • Verify workers wearing appropriate respiratory protection with proper fit and seal checks performed before entering dusty areas
  • Inspect electrical isolation integrity periodically - test for voltage if any doubt about isolation status during work
  • Check progressive demolition work preserving structural elements and services to remain - stop work if damage observed
  • Monitor manual handling practices ensuring mechanical aids used and team lifting protocols followed for heavy components
  • Verify waste segregation occurring according to plan - intervene if materials being mixed preventing effective recycling
  • Inspect ceiling void access ensuring safe stepping locations maintained as demolition progresses through ceiling areas
  • Monitor for unexpected conditions including additional asbestos, concealed services, or structural issues requiring specialist assessment

After work

  • Conduct final inspection verifying all designated demolition complete and retention elements undamaged
  • Check no electrical, gas, or water services damaged during demolition - pressure test and visual inspection of systems to remain
  • Verify all asbestos-containing materials identified in survey have been appropriately removed or managed
  • Inspect waste removal ensuring all demolished materials removed from site and waste bins emptied
  • Clean work area removing all dust and debris using wet methods or HEPA vacuum - never dry sweep
  • Verify structural elements protected during demolition show no damage requiring repair
  • Document work completion including photographs showing final condition for handover or warranty records
  • Report any issues discovered during demolition including concealed damage, additional asbestos, or building defects requiring attention

Step-by-step work procedure

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

Field ready

Pre-Demolition Documentation and Survey Review

Obtain and review all documentation relating to demolition scope, building construction, and hazardous materials before mobilizing to site. Review architectural drawings identifying structural elements, building services, and extent of demolition versus retention. Study asbestos survey report confirming all asbestos-containing materials have been identified and removed by licensed removalists, or obtaining clearance to proceed if no asbestos present. Review building services drawings showing electrical, hydraulic, gas, HVAC, and fire protection systems requiring protection or isolation. Photograph work area documenting pre-demolition condition protecting against claims of damage to existing elements. Conduct physical inspection comparing actual site conditions to documentation - buildings often differ from drawings particularly after multiple refurbishments. Mark structural elements requiring protection using colored tape, barriers, or protective coverings. Identify and document any pre-existing damage to retention elements. Develop detailed demolition sequence establishing order of operations preventing damage to services or structural elements during progressive removal. Prepare site-specific risk assessment addressing identified hazards with task-specific controls before work commencement.

Safety considerations

Verify asbestos survey was conducted by licensed asbestos assessor and covers all areas subject to demolition. If survey indicates asbestos present, ensure licensed asbestos removalist has completed removal and independent licensed assessor has issued clearance certificate before any other demolition work. Identify emergency procedures for building including evacuation routes, assembly points, and emergency contact numbers. Locate first aid facilities and nearest hospital for emergency transport. Verify building access and egress routes remain available during demolition.

Service Isolation Implementation and Verification

Coordinate comprehensive isolation of all building services within demolition area before any physical demolition work. Licensed electrician identifies all electrical circuits serving demolition area, isolates at distribution boards, installs lockout devices on circuit breakers, and applies isolation tags documenting circuit isolated, date, and responsible person. Test electrical isolation using voltage detector at multiple locations throughout demolition area confirming zero voltage present. Licensed gas fitter isolates gas services at meter or manifold, installs physical lock on valve, and tests downstream confirming zero gas pressure. Plumber isolates water services, tests for zero pressure at downstream fixtures. For HVAC systems with ductwork being removed, coordinate reconfiguration or temporary isolation with building HVAC contractor. Fire protection systems requiring isolation need fire authority approval with compensating measures including enhanced portable fire equipment and fire watch personnel during isolation period. Photograph all lockout devices installed documenting isolation implementation. Maintain isolation register recording what is isolated, isolation points, person responsible, and planned restoration date. Brief all demolition personnel on isolation status and procedures preventing unauthorized removal of lockout devices.

Safety considerations

Only licensed contractors may perform service isolations in their trade area - electricians for electrical, gas fitters for gas, plumbers for hydraulic. Never assume services are isolated without verification testing - inadequate isolations have caused multiple fatalities. Implement two-person verification for critical isolations particularly electrical. Maintain lockout devices throughout entire demolition period. If isolation must be temporarily removed for testing or other work, implement strict permit system with all affected workers notified and area cleared before re-energisation. Provide voltage detectors to demolition crews allowing periodic verification during work.

Fixture and Fitting Removal

Commence demolition with removal of loose fixtures and fittings including shelving, display units, signs, hanging fixtures, and equipment. This initial phase reduces clutter, eliminates trip hazards, and removes components that could fall during subsequent demolition creating struck-by hazards. Remove contents from cabinetry and storage units preventing falling contents hazard during cabinet removal. Disconnect appliances from services - electrical disconnection by licensed electrician, gas disconnection by licensed gas fitter, plumbing disconnection by licensed plumber or under supervision. Remove window treatments including blinds, curtains, and awnings. Disconnect and remove lighting fixtures working from stable access equipment - fixtures often contain fragile components and stored electrical energy in capacitors requiring caution. Remove signage both internal directional signage and external building identification - external signs may require elevated work platforms or scaffolding for access. Salvage items designated for reuse or resale - handle carefully preventing damage reducing salvage value. Segregate waste as fixtures removed - metals to metal recycling, timber to timber recycling, general waste to landfill bins, electronic waste including lights and electrical components to e-waste disposal.

Safety considerations

Verify electrical isolation before touching any electrical fixtures or appliances. Use appropriate access equipment for elevated fixture removal maintaining three-point contact on ladders. Install temporary support before disconnecting heavy suspended fixtures preventing falls. Wear cut-resistant gloves handling fixtures with sharp edges or broken components. Use two-person teams removing heavy fixtures exceeding 20kg coordinating lift and positioning. Watch for fixtures under spring tension including roller shutters or counter-balanced mechanisms - release tension carefully following manufacturer procedures.

Ceiling System Demolition

Remove suspended ceiling systems working systematically from one area to completion. Remove ceiling tiles first exposing ceiling grid framework and services above. Inspect ceiling void for concealed services, structural elements, or hazardous materials before proceeding. Remove light fittings and air conditioning grilles disconnecting from services - electrical disconnection by licensed electrician. Photograph ceiling void conditions documenting services and structure for reference. Remove ceiling grid progressively starting from perimeter working toward center maintaining safe access throughout removal. Cut or disconnect ceiling hangers supporting grid framework - support grid sections before cutting hangers preventing sudden collapse. Lower grid sections to floor level using controlled methods - do not allow components to fall creating struck-by hazards. Where ceiling void access is required, use mobile scaffold platforms or temporary decking providing stable working surface rather than stepping on ceiling grid. If stepping on grid unavoidable, step only on main grid intersections or runners - cross tees cannot support worker weight. Remove ceiling insulation if present - verify non-asbestos before handling, use respiratory protection and coveralls preventing dust exposure and contamination.

Safety considerations

Establish exclusion zones below ceiling work preventing personnel beneath areas where components being removed. Wear hard hats protecting against falling ceiling components and tools. Use adequate lighting in ceiling voids illuminating safe stepping areas and concealed hazards. Never step on ceiling plasterboard or building paper between grid members - will not support weight causing fall through to space below. Support ceiling grid sections before cutting hangers - sudden collapse causes struck-by injuries. Lower removed components using ropes or controlled methods - never drop or throw from height. Maintain respiratory protection in dusty ceiling voids particularly when removing insulation.

Partition and Wall Demolition

Demolish non-structural partitions working from top to bottom to control material falling. Remove doors and hardware first eliminating heavy components before structural demolition. For plasterboard on steel stud partitions, remove plasterboard sheets from both sides exposing framing. Use utility knives to cut plasterboard rather than breaking which generates excessive dust. Remove sheets progressively supporting weight - plasterboard sheets 2400mm x 1200mm weigh 15-20kg requiring controlled handling. After plasterboard removal, dismantle steel stud framing. Cut studs and tracks using reciprocating saw or angle grinder with metal cutting disc. Wear hearing and eye protection during cutting operations. Remove fixing screws where practical rather than cutting framing reducing sharp edges and waste volume. For brick or masonry partitions, use demolition hammer or hand tools to progressively break masonry working from top to bottom. Wet down masonry during breaking suppressing dust generation. For timber framed partitions, remove cladding then dismantle framing. Use cable detection equipment before cutting or penetrating any surface locating concealed electrical cables preventing contact. Lower demolished materials to ground level immediately - do not stack at height creating falling hazard.

Safety considerations

Verify electrical isolation before commencing partition demolition. Use cable detection equipment extensively - electrical cables commonly run within partitions serving outlets and switches. Wear respiratory protection during dusty demolition activities. Use water spray suppressing dust during breaking operations. Support materials during removal preventing uncontrolled falling. Watch for partitions providing structural bracing - consult structural engineer before removing if uncertainty exists. Remove services within partitions carefully preventing damage to services required to remain. Segregate waste - steel framing to metal recycling, plasterboard to plasterboard recycling, timber to timber recycling, masonry to inert waste.

Cabinetry and Joinery Removal

Remove cabinetry and joinery systems including kitchen units, bathroom vanities, storage cabinetry, reception desks, and display units. Disconnect services first - electrical connections by licensed electrician, plumbing by licensed plumber. Remove benchtops before base cabinets reducing weight and providing access to cabinet fixing screws. For heavy stone or solid surface benchtops, use two-person minimum teams or mechanical lifting aids - benchtops often weigh 40-80kg per linear meter. Remove wall cabinets before base cabinets preventing overhead hazards during floor-level work. Support wall cabinets temporarily before removing all fixings preventing sudden falling. Check for concealed fixings including angle brackets, toggle bolts, or construction adhesive bonding cabinets to walls requiring additional removal effort. Remove base cabinets after benchtops removed. Disconnect adjacent cabinets joined through cabinet sides before attempting removal. Remove kickboards providing access to cabinet legs and floor fixings. For fitted joinery, assess removal sequence preventing damage to elements requiring retention. Some joinery may require careful dismantling for salvage rather than demolition. Inspect wall surfaces after cabinet removal identifying any damage requiring repair or patching.

Safety considerations

Use two-person teams removing all cabinetry over 20kg. Support wall cabinets before removing final fixings - cabinets can swing violently when released from wall. Watch for stored items within cabinets falling when doors opened or cabinets moved. Wear cut-resistant gloves handling cabinetry with sharp edges or exposed fixings. Use proper lifting technique maintaining straight back and bent knees when handling heavy components. Check for services concealed behind cabinetry particularly plumbing and electrical before removal. Lower heavy benchtops in controlled manner - stone benchtops are extremely heavy and fragile.

Floor Covering Removal and Cleanup

Remove floor coverings including carpet, vinyl, tiles, timber flooring, or raised access floors as specified in demolition scope. For carpet, cut into manageable strips using utility knife, roll strips for easier handling, and dispose in general waste bins. Remove carpet underlay and tack strips securing edges. For vinyl floor coverings in buildings pre-2004, test for asbestos before removal - vinyl tiles and backing frequently contain asbestos requiring licensed removal. If testing confirms non-asbestos, remove vinyl using scrapers and heat if required softening adhesive. For ceramic tiles, use demolition hammer or hand tools to break tiles from substrate working systematically across floor. Wet down tiles during breaking suppressing dust. For timber flooring, remove fixing nails or screws, then lift boards. Watch for concealed services below timber flooring particularly electrical cables or plumbing. For raised access floors, remove panels first, then supporting framework and bases. After floor covering removal, clean substrate removing adhesive residues, leveling compound, or debris preparing for new flooring installation. Conduct final cleanup using wet methods or HEPA vacuum removing all dust and debris.

Safety considerations

Test vinyl floor coverings for asbestos before removal - if asbestos present engage licensed asbestos removalist. Use sharp utility knife blades reducing force required during cutting - replace blunt blades immediately. Maintain ergonomic postures during floor removal - use knee pads reducing knee strain during kneeling work. Take regular breaks during sustained floor removal - cumulative exposure to bending and kneeling causes significant musculoskeletal strain. Wet down tiles during breaking suppressing dust generation. Verify no concealed services below floor coverings before using demolition hammers or power tools. Segregate waste - carpet to general waste, vinyl to general waste (unless asbestos), tiles and concrete to inert waste, timber to timber recycling.

Final Inspection, Cleanup and Waste Disposal

Conduct comprehensive final inspection verifying all designated demolition work complete and retention elements undamaged. Check structural elements protected during demolition showing no damage requiring repair. Verify building services to remain are undamaged and functioning - test electrical circuits, water services, HVAC operation. Confirm all asbestos-containing materials identified in survey removed appropriately or managed per asbestos management plan. Inspect waste segregation verifying materials separated for recycling versus landfill disposal. Clean entire work area using wet cleaning methods or HEPA vacuum removing all dust and debris - never dry sweep dispersing dust into air. Wet wipe all surfaces including walls, window sills, and any furniture or fixtures in surrounding areas potentially contaminated by demolition dust. Vacuum or wet clean adjacent areas outside immediate work zone where dust may have migrated. Remove all waste bins and demolition equipment from site. Conduct air quality testing if required verifying dust levels acceptable for re-occupation. Photograph final condition documenting work completion and undamaged retention elements. Prepare completion documentation including waste disposal manifests, asbestos clearance certificates if applicable, and photographic record. Coordinate final inspection with client or building management obtaining acceptance before demobilization.

Safety considerations

Maintain respiratory protection during final cleanup in dusty environments. Ensure adequate ventilation during cleanup allowing dust to settle or be extracted. Dispose of used respiratory protection, contaminated coveralls, and cleaning materials as contaminated waste. Decontaminate tools and equipment before removing from site preventing dust transfer. Verify all service isolations can be safely restored - coordinate with licensed contractors for re-energisation after confirming no damage to services during demolition. Complete incident and near-miss reporting documenting any safety issues encountered during demolition for learning and continuous improvement.

Frequently asked questions

What are the legal requirements for asbestos surveys before soft demolition work in buildings constructed before 2004?

Work Health and Safety Regulations require persons conducting businesses to identify presence and location of asbestos before commencing demolition or refurbishment work that may disturb asbestos. For buildings constructed or refurbished before December 2003, an asbestos survey conducted by licensed asbestos assessor is mandatory before any demolition work commences. The survey must be comprehensive, covering all areas subject to demolition including ceiling voids, wall cavities, floor substrates, and any areas where work will disturb building materials. Assessors conduct visual inspection and collect samples of suspected asbestos-containing materials for laboratory analysis by NATA-accredited testing facilities. The survey report documents all identified ACMs with locations, quantities, material type, friability assessment, and condition. Where asbestos is identified, it must be removed by licensed asbestos removalists before other demolition work proceeds - Class A licence for friable asbestos or friable asbestos exceeding 10 square metres, Class B licence for non-friable asbestos exceeding 10 square metres. For bonded non-friable asbestos less than 10 square metres, appropriately trained personnel may conduct removal following strict procedures including wet removal methods, dedicated tools, sealed disposal in labeled bags, and air monitoring. After asbestos removal, independent licensed assessor must conduct clearance inspection and issue clearance certificate confirming all ACMs removed and area safe for other work. Attempting demolition without asbestos survey in pre-2004 buildings constitutes serious WHS breach with penalties potentially exceeding $250,000 for companies. All workers accessing demolition areas must complete asbestos awareness training per Safe Work Australia Code of Practice understanding identification, health risks, and stop-work procedures if unexpected asbestos discovered.

How should electrical isolation be verified before commencing soft demolition to prevent electrocution incidents?

Electrical isolation must be performed by licensed electrician who identifies all circuits serving demolition area, isolates at distribution boards, and verifies isolation effectiveness through testing. Electrician installs lockout devices on circuit breakers preventing re-closure and applies isolation tags showing circuit isolated, date, and person responsible. Never assume isolation is adequate based solely on circuit breaker position - many electrocution incidents occurred when wrong circuits isolated or when multiple circuits served single areas. After isolation at distribution board, test for voltage using voltage detector at multiple locations throughout demolition area confirming zero voltage present at outlets, light fittings, and service points. Test both active and neutral conductors as some installations have switching on neutral creating shock hazard even with active isolated. Implement two-person verification for critical isolations - independent competent person confirms isolation before work authorization. Photograph lockout devices installed providing verification record. Maintain isolation register documenting what is isolated, isolation point location, person responsible, verification test results, and planned restoration date. Lockout devices remain in place throughout entire demolition period. Only the electrician who installed lockout may remove it after confirming all work complete and safe to re-energise. During demolition work, use cable detection equipment before penetrating any surface or removing fixtures locating concealed electrical cables. Periodic voltage testing during work confirms isolation remains effective - circuits can inadvertently re-energise through neutral connections to other circuits or backfeed from equipment. If any voltage detected during testing, immediately stop work, re-verify isolation, and do not proceed until electrical safety confirmed. Brief all demolition personnel that electrical isolation does not eliminate need for careful work practices - treat all conductors as potentially live until proven otherwise through testing.

What manual handling controls are effective for reducing injury risk during sustained soft demolition work?

Soft demolition creates substantial cumulative manual handling exposure requiring multiple controls to prevent musculoskeletal injuries. Provide mechanical demolition tools reducing manual effort including electric or pneumatic demolition hammers for breaking concrete or tiles, reciprocating saws for cutting framing and materials, and power scrapers for floor covering removal. Use mechanical handling aids including panel lifters or suction cup devices for large sheets and glazing, hand trolleys and pallet jacks for moving heavy components, and wheelbarrows or bins on wheels for transporting materials reducing repetitive carrying. Position waste bins strategically throughout work area allowing short carrying distances, relocating bins frequently as work progresses minimizing travel with loads. Implement mandatory two-person team lifting for items exceeding 20kg with clear role assignments and verbal communication during lifts. For ceiling work requiring sustained overhead reaching, use elevated platforms positioning workers at appropriate height reducing shoulder strain compared to working from ladders with arms extended overhead. Schedule regular breaks minimum every 2 hours during sustained demolition allowing physical recovery from cumulative loading. Rotate workers between different demolition tasks varying muscle group demands - alternate between overhead ceiling work, floor-level partition removal, and ground-level material handling. Train workers in correct manual handling techniques emphasizing bent knees with straight back, keeping loads close to body, avoiding twisting while carrying loads, and using mechanical aids rather than pure manual force. For floor covering removal requiring prolonged kneeling, provide knee pads reducing direct pressure on knee joints. Break large demolition tasks into smaller manageable sections preventing fatigue from extended continuous physical work. Monitor workers for signs of fatigue including slowed movement, awkward postures, or verbal complaints of pain - intervene with additional breaks or task reassignment before injuries occur. Consider task complexity when scheduling - do not plan multiple high-demand manual handling tasks consecutively without adequate recovery time between.

What dust control measures are required during soft demolition in occupied commercial buildings to prevent complaints and health impacts?

Dust control in occupied commercial buildings requires comprehensive measures preventing both worker exposure and dust migration affecting adjacent tenancies or building occupants. Install plastic sheeting barriers at all work area boundaries creating containment with overlapping joints preventing dust escape to corridors or adjacent spaces. Seal barriers top and bottom using tape ensuring complete seal. Install zippered access doors in barriers allowing worker access while maintaining containment. Use water suppression extensively during demolition activities - spray water on materials before breaking or cutting, maintain dampness during work, and spray dust settling on surfaces during cleanup. For cutting operations generating concentrated dust, use water-fed equipment for concrete or masonry cutting suppressing silica dust at source. Connect power tools to HEPA-filtered vacuum extractors when cutting plasterboard, timber, or materials indoors capturing dust before becoming airborne. Implement negative air pressure systems using portable air scrubbers with HEPA filtration drawing air from work area and exhausting filtered air outside or to safe locations creating pressure differential preventing dust migration to surrounding areas. Change filters regularly as loading reduces effectiveness. Schedule high dust-generation activities during times when adjacent retail tenancies are closed reducing exposure to others - coordinate timing with building management. Prohibit dry sweeping which disperses settled dust back into air - use wet mop cleaning or HEPA vacuum cleaners for all cleanup. Wet wipe all surfaces in and around work area removing accumulated dust. For large demolition projects, consider air quality monitoring measuring particulate concentrations verifying control effectiveness and demonstrating compliance if complaints arise. Provide P2 respirators to all demolition workers protecting against dust inhalation regardless of other controls as administrative safety measure. Brief workers on dust control importance and techniques - worker cooperation essential for effective implementation. Respond immediately to any dust complaints from adjacent tenants or building management increasing suppression measures or modifying work practices before proceeding. Document dust control measures implemented protecting against future claims of inadequate controls.

How should waste be segregated during soft demolition to maximize recycling and minimize disposal costs?

Effective waste segregation during demolition substantially reduces disposal costs by diverting recyclable materials from landfill which incurs waste levies in most Australian jurisdictions. Provide separate bins or designated areas for each major waste stream preventing contamination making materials unrecyclable. Metal waste including steel framing, ducting, brackets, and fixtures goes to scrap metal recycling - separate ferrous (steel) from non-ferrous (aluminum, copper) if recycler requires. Timber from partition framing, joinery, and doors goes to timber recycling provided not painted with lead paint or treated with toxic preservatives - clean untreated timber has good recycling value. Plasterboard can be recycled at dedicated facilities separating gypsum for reuse - keep plasterboard separate from other waste and relatively clean. Concrete, masonry, and tiles constitute inert waste acceptable at reduced levy rate compared to general waste - keep free of contamination with timber, metals, or plastics. Cardboard from packaging and paper goes to recycling. Glass including glazing and mirrors can be recycled if sorted by type. General waste includes contaminated materials, mixed waste that cannot be segregated, and items with no recycling pathway - this stream incurs highest disposal levy so minimize quantities. Hazardous waste requires separate handling including asbestos waste to licensed asbestos disposal facilities with documentation, fluorescent tubes containing mercury to e-waste facilities, batteries, and any materials contaminated with chemicals. Electronic waste including light fittings, switches, and electrical components may require e-waste disposal rather than landfill depending on jurisdiction. Brief demolition workers on waste segregation requirements and bin allocation before work commences. Position bins logically based on demolition sequence - place metal bin near partition work, plasterboard bin near plasterboard removal area. Conduct regular inspections of bin contents ensuring segregation being maintained - intervene immediately if materials being mixed preventing entire bin becoming contaminated general waste. Calculate waste volumes during planning ensuring adequate bin capacity throughout project - insufficient bins force mixing of waste streams when dedicated bins become full. Consider timing of bin exchanges particularly for heavy inert waste that quickly fills bins - schedule collections allowing continuous work without delays waiting for empty bins. Document waste disposal including quantities, waste types, and disposal facilities demonstrating environmental compliance and providing cost verification.

Related SWMS documents

Browse all documents

shop-fitting

Aluminium Window Door Frame Installation Safe Work Method Statement

Comprehensive SWMS for installing aluminium window and door frames including shopfronts, internal partitions, and commercial entrances with manual handling and glass safety controls.

View document

shop-fitting

Audio Visual Installation Safe Work Method Statement

Comprehensive SWMS for installing commercial AV systems including screen mounting, projector installation, speaker placement, and system commissioning with electrical and height safety controls.

View document

shop-fitting

Awnings Blinds Curtains Installation Safe Work Method Statement

Comprehensive SWMS for installing commercial awnings, blinds, and curtain systems including external awnings, motorised blinds, and heavy commercial curtains with work at heights and fixing safety controls.

View document

shop-fitting

Cabinet Installation Safe Work Method Statement

Comprehensive SWMS for installing retail display cabinets, storage units, reception desks, and commercial joinery in shop fitting projects including manual handling controls and coordination protocols.

View document

shop-fitting

Glass Whiteboard Installation Safe Work Method Statement

Comprehensive SWMS for installing glass whiteboards and writable glass surfaces in office fit-outs including glass handling procedures, wall fixing methods, and elevated work controls.

View document

shop-fitting

Glazing Safe Work Method Statement

Comprehensive SWMS for shopfront glazing and internal glass partition installation in shop fitting including glass handling, framing systems, and structural glass installation controls.

View document
Trusted by 1,500+ Australian construction teams

Soft Demolition 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.

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

Ready to deliver professional SWMS in minutes?

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