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Scaffolding SWMS — Safe Work Method Statement for Scaffold Erection and Dismantling

A Safe Work Method Statement (SWMS) for scaffolding is a mandatory safety planning document required under the Work Health and Safety (WHS) Regulation 2025 before any high risk construction work involving the erection, alteration, or dismantling of a scaffold commences on an Australian construction site. Scaffold erection and dismantling is when the majority of serious scaffold injuries occur — before the guardrails are in place, before the platforms are complete, and before the scaffold looks like a scaffold. Workers are literally building the fall protection system they depend on, which means they temporarily work without the very controls that will protect scaffold users later. The WHS Regulation 2025 captures scaffold work under at least two HRCW categories — risk of fall from a height of more than 2 metres, and erection or dismantling of scaffolding from which a person could fall more than 4 metres. Scaffolding from which a person could fall more than 4 metres may only be erected, altered or dismantled by a person holding a High Risk Work Licence in the appropriate scaffolding class — Basic (SB) under CPCCLSF2001A, Intermediate (SI) under CPCCLSF3001A, or Advanced (SA) under CPCCLSF4001A. The class required depends on the type of scaffold and the complexity of the work. Scaffold collapses, erection falls, and dismantling falls are regularly investigated and prosecuted by the Australian state WHS regulators. Common root causes cited in the SafeWork NSW Prosecution Register and WorkSafe Victoria prosecution records include inadequate bracing and ties during erection, incorrect sequencing that allows workers to access lifts without guardrails, premature removal of edge protection during dismantling, overloading of standards beyond rated capacity, and the use of damaged or mis-matched components. The Code of Practice: Scaffolds and Scaffolding Work (2021) sets out the competent person requirements, inspection obligations and technical controls required to prevent these incidents. This pre-filled scaffolding SWMS template has been developed in accordance with the WHS Act 2011, WHS Regulation 2025, the Code of Practice: Scaffolds and Scaffolding Work (2021), the Code of Practice: Managing the Risk of Falls at Workplaces (2018), AS/NZS 1576.1 (Scaffolding — General requirements), AS/NZS 1576.3 (Prefabricated and tube-and-coupler scaffolding), and AS/NZS 4576 (Guidelines for scaffolding). It is designed to be customised for the specific scaffold design, site conditions, and trade programme before use. A generic template that has not been made site specific does not satisfy the Regulation.

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Legal Requirements

regulation

WHS Regulation 2025 Part 6.1 Division 3 — High Risk Construction Work; Part 4.4 — Falls; Part 4.5 — Plant (structural)

hrcw category

Risk of fall from a height of more than 2 metres; erection, alteration or dismantling of scaffolding from which a person could fall more than 4 metres (WHS Regulation 2025, Schedule 1)

code of practice

Code of Practice: Scaffolds and Scaffolding Work (2021); Code of Practice: Managing the Risk of Falls at Workplaces (2018); Code of Practice: Construction Work (2019)

section 26a binding

Binding under Section 26A — the principal contractor must obtain, review, and keep the SWMS on site for the duration of the HRCW

hrwl required

A licensed scaffolder is required to erect, alter, or dismantle scaffolding from which a person could fall more than 4 metres. Licence classes: Basic Scaffolding (SB) under CPCCLSF2001A for tube and coupler, prefabricated modular, and prefabricated frame scaffolds; Intermediate Scaffolding (SI) under CPCCLSF3001A for cantilevered materials hoists and hung scaffolds; Advanced Scaffolding (SA) under CPCCLSF4001A for cantilevered scaffolds, suspended scaffolds, and mast climbing work platforms. All workers require a construction induction (CPCCWHS1001)

Hazards

HazardConsequenceLikelihood
Falls from a partially erected scaffold before guardrails and edge protection are installedDuring the erection phase workers are exposed to the open edge of each new lift as it is built. Falls typically occur when workers step onto a newly placed platform to install the ledger, transom or guardrail above them. A fall from a scaffold lift at 4, 6, 8 or more metres onto the ground or onto lower scaffold components is almost always fatal or catastrophic. The hazard is the reason an advance guardrail system or an equivalent engineering control is the preferred control under the Code of Practice.Possible (C) — this is the highest-risk phase of the scaffold lifecycle
Falls during dismantling as guardrails, platforms and bracing are progressively removedDismantling is the mirror image of erection and carries many of the same risks, compounded by worker fatigue at the end of a job and by the temptation to speed the process. Incidents recur where guardrails are removed before the worker is tied off or before the advance guardrail is in place. In 2023 SafeWork NSW prosecuted a NSW scaffold contractor after a scaffolder fell 8 metres during dismantling because the guardrails had been removed before the harness system was connected.Possible (C) — risk is highest in the final stage of the job
Complete or partial scaffold collapse from inadequate bracing, missing ties, or under-designed baseA scaffold relies on diagonal bracing, ties to the permanent structure, and a load-bearing base to resist overturning, racking and vertical compression. Where bracing is missing, ties are omitted at specified intervals, or the base is not level and firm, the scaffold can fail progressively or suddenly, taking every worker on the platforms to the ground. WorkSafe Victoria prosecuted a scaffold contractor in 2022 after three workers fell when a scaffold collapsed during erection due to inadequate bracing and ties, with two workers suffering serious spinal injuries.Unlikely (D) — but consequences are catastrophic; controlled by engineered design and competent erection
Overloading of standards, ledgers and transoms beyond the rated duty causing progressive structural failureScaffolds are rated to a specific duty category — light, medium, heavy or special — set by the designer. Overloading a lift by stacking bulk materials beyond that rating, or by concentrating point loads on inadequately supported transoms, can cause deformation of the tubing, failure of the couplers, and progressive collapse. Collapse incidents typically drop every worker on the platform at once and can also strike workers below.Possible (C) — particularly on masonry and render jobs where bulk materials are brought directly to the face
Dropped tools and components during erection and dismantling striking workers and public belowTubes, couplers, spanners, boards, ties and fittings handled at height will be dropped occasionally even by careful scaffolders. A falling tube from 6 metres has energy sufficient to cause fatal head injury, and a dropped coupler can fracture a skull. Dropped object events are a recurring source of injuries in the Australian scaffold trade and are the reason for toe boards, brick guards, exclusion zones and tool tethering.Likely (B) — dropped object events occur routinely without disciplined tethering and exclusion zones
Contact between scaffold tubing and overhead electrical power lines causing electrocutionA steel scaffold tube handled vertically can reach 6 metres and brings the scaffolder within range of distribution power lines commonly encountered on Australian building sites. Contact with an 11 kV or 33 kV conductor is virtually always fatal. The Code of Practice: Work Near Overhead Power Lines requires identification of every line within the work area, confirmation of voltage, calculation of minimum approach distances in accordance with the state network operator's rules or AS/NZS 4576, and implementation of controls such as shutdown, insulation, tiger tails or exclusion zones.Unlikely (D) — but consequence is catastrophic; eliminated by identifying lines before work commences
Scaffold erected on unstable, soft, sloping or uncompacted ground causing base failureA scaffold imposes significant compressive load at each standard. Where the base is soft soil, fill, recently backfilled excavation, or uncompacted aggregate, the base plates can settle differentially and cause the scaffold to lean, rack, or fall. Water infiltration during rain events can liquefy fill and trigger sudden settlement. Sole boards of adequate size are required to distribute the load and compacted bases must be verified before erection begins.Possible (C) — particularly on early-stage construction sites with recently placed fill
Wind loading on sheeted scaffolds, debris netting, and shade cloth increasing overturning forcesScaffold sheeting, debris netting and shade cloth significantly increase the wind load on the scaffold structure. A sheeted scaffold in a 60 km/h wind can experience forces several times greater than an unsheeted equivalent, and overturning or component dislodgement becomes a real possibility. The scaffold designer must allow for sheeting loads and the erection crew must know when to cease work and secure loose components during wind events.Possible (C) — elevated in coastal regions, during seasonal storms and on exposed elevations
Premature access to an incomplete scaffold by trades who bypass the inspection and tagging processA scaffold that is not yet complete — missing boards, incomplete guardrails, missing ties — is not safe for use by trades. Trades who access the scaffold before the competent person has inspected it and applied the green tag expose themselves to fall through gaps, collapse, and fall from unprotected edges. The tagging system exists to prevent this and must be enforced by both the scaffold contractor and the principal contractor.Possible (C) — occurs routinely without disciplined tag control
Manual handling injury from repetitive lifting, carrying and positioning of scaffold tubes and boardsA 6 metre steel scaffold tube weighs 15 to 20 kilograms. A scaffolder working a full shift may lift, pass, and position several hundred tubes, along with transoms, braces, boards and fittings, frequently in awkward postures on the lifts. Cumulative manual handling generates high rates of lower back, shoulder, elbow and wrist injury, and scaffold is one of the highest musculoskeletal injury trades in construction.Likely (B) — a routine consequence of scaffolding work
Pinch and crush injury to hands and fingers during coupler tightening and component assemblyScaffold couplers, wedge locks and fittings generate pinch points during tightening. Fingers and hands caught between tubes or in moving couplers are crushed, fractured or partially amputated. These injuries are high frequency and largely preventable with rigger's gloves and careful handling technique.Likely (B) — occurs routinely without glove use and disciplined technique

Controls (Hierarchy of Controls)

[Elimination] Eliminate manual scaffold erection where practicable by specifying prefabricated modular systems, proprietary frame scaffolds, and pre-engineered hung scaffold assemblies that reduce tube count and assembly complexity
[Elimination] Eliminate fall exposure during erection by using an advance guardrail system where the guardrail is installed from the completed lift below before workers access the next lift
[Substitution] Substitute tube and coupler scaffolding with a prefabricated modular system where the geometry suits, reducing manual handling and assembly time at height
[Substitution] Substitute heavy steel components with lightweight aluminium equivalents on light-duty scaffolds where the design permits
[Isolation] Establish and maintain an exclusion zone at ground level below the active erection or dismantling area — barricaded and signed, with a minimum clearance of 3 metres or the calculated fall zone plus a safety margin
[Isolation] Physically isolate any energised overhead power line by arranging a shutdown with the network operator, installing insulation tiger tails, or erecting a rigid barrier at the minimum approach distance specified in AS/NZS 4576
[Engineering] Specify and install a scaffold designed to AS/NZS 1576.1 and AS/NZS 1576.3 for the specific duty, with engineered drawings where required for non-standard configurations, cantilevers, or loads above medium duty
[Engineering] Install ties to the permanent structure at the intervals specified in the design and the Code of Practice — typically every second lift and every third bay — to prevent overturning and sway
[Engineering] Provide sole boards on firm level ground at every standard — minimum 220 mm by 220 mm hardwood or equivalent — on compacted base with adequate bearing capacity
[Engineering] Install toe boards of at least 150 mm, top rails between 900 mm and 1100 mm, and mid-rails on every working lift as soon as the platform is placed
[Engineering] Use a gin wheel, material hoist, or rope and pulley for lifting tubes, boards and fittings to the upper lifts to eliminate hand-passing heavy components
[Administrative] Define the erection sequence in the SWMS — which lifts are built first, where ties are installed, where bracing is located, and the timing of guardrail installation — and brief the crew before work commences
[Administrative] Confirm every scaffolder holds the appropriate HRWL class for the scaffold being built (SB, SI or SA) and record licence numbers and expiry dates in the SWMS
[Administrative] Implement the scaffold tag system — green tag signed by the competent person after handover inspection, red tag when the scaffold is incomplete or out of service — and enforce tag control at the access point
[Administrative] Conduct and record inspections before first use, after any alteration, after any event that could affect stability, and at intervals not exceeding 30 days
[Administrative] Monitor wind speed with an anemometer during erection and dismantling, cease erection or dismantling at the manufacturer or code specified limit (typically 40 km/h), and cease all scaffold work at 60 km/h
[Administrative] Brief the crew on dropped object controls — tool tethering, lift zone clearance, and rules against throwing components
[PPE] Full body harness to AS/NZS 1891.1 with twin-tail energy-absorbing lanyards to maintain 100 percent tie-off during transitions where advance guardrail is not in place
[PPE] Hard hat with chin strap to AS/NZS 1801, impact-rated safety glasses to AS/NZS 1337.1, safety footwear to AS/NZS 2210.3, and leather work gloves to AS/NZS 2161.1 for every worker
[PPE] High-visibility clothing to AS/NZS 4602.1 for visibility to crane operators and mobile plant during material delivery
[PPE] Hearing protection to AS/NZS 1270 during coupler hammering, spinner use and sustained construction noise
[PPE] Sun protection — broad-brim accessory on the hard hat, SPF 50+ sunscreen and long sleeves for outdoor scaffolders exposed to intensified UV at height

Recent Prosecutions

SafeWork NSW — scaffolder fall during dismantling (NSW metropolitan)Fines of the order of $280,000

A scaffolder fell 8 metres during dismantling when the guardrails had been removed from the lift before the fall protection system was connected. SafeWork NSW investigated and prosecuted the scaffold contractor for failure to ensure a safe system of work during dismantling and for failing to prepare a SWMS that addressed the specific hazards of the dismantling sequence and the fall protection method at each stage.

2023SafeWork NSW Prosecution Register

WorkSafe Victoria — scaffold collapse during erectionFines of the order of $320,000 and an enforceable undertaking

A scaffold collapsed during erection due to inadequate bracing and insufficient ties to the permanent structure. Three workers fell from the scaffold at various heights and two sustained serious injuries including spinal fractures. WorkSafe Victoria prosecuted the scaffold contractor under the Occupational Health and Safety Act 2004 for failures to provide a safe system of work and for failing to comply with the manufacturer and engineered design specifications.

2022WorkSafe Victoria Prosecution Register

SafeWork Australia scaffold compliance priorityMultiple improvement and prohibition notices

SafeWork Australia and the state regulators continue to identify scaffold erection and dismantling as a priority for compliance and enforcement activity under their construction falls-from-height programmes. Routine inspection actions target missing ties, inadequate bracing, under-designed bases, premature trade access, incomplete tagging, and non-current licences. Improvement and prohibition notices are routinely issued and prosecutions follow where breaches are serious or recurrent.

2024Safe Work Australia and state regulator compliance data

What Your SWMS Must Include

A description of the scaffold work including the specific scaffold type, the maximum working height and duty rating, and the expected duration of the erection and dismantling phases
Identification of every hazard associated with the scaffold work, assessed using a risk matrix of consequence against likelihood
Control measures documented in the order of the hierarchy of controls from elimination through to PPE
How each control measure will be implemented, supervised, monitored and reviewed
The name and position of the competent scaffold supervisor responsible for the work
Evidence of consultation with the scaffold crew and any elected HSR
Training and competency requirements including HRWL class and licence expiry for every scaffolder and construction induction for every labourer
Emergency procedures including rescue from height, first aid, and notifiable incident reporting
PPE requirements specified by type and Australian Standard
Plant and equipment including the tube make and condition, couplers, ties, gin wheels and lifting gear
Hazardous substances relevant to the work with Safety Data Sheets
Site specific conditions including access, ground conditions, overhead services, adjacent trades and public interfaces
A worker sign-on sheet confirming the briefing
Review triggers including incidents, near misses, HSR requests and scheduled intervals
The erection and dismantling sequence documented in detail including the lift order, bracing and tie installation, and the advance guardrail staging
A fall protection method for each stage of erection and dismantling
A scaffold design or specification confirming AS/NZS 1576 compliance, load rating, and engineered design where required
A handover inspection procedure with a green and red tag system and a scaffold register entry
Wind and weather stop-work criteria for erection, dismantling and use

Build Your Scaffolding SWMS in Minutes

This SWMS template pre-loads scaffold erection and dismantling hazards, advance guardrail controls, HRWL class requirements, and AS/NZS 1576 references so contractors can customise the document for the specific design, site, and crew. Select the activities, review the controls, and produce a site-ready SWMS before the first tube is lifted.

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