Wind Turbine Erection (Crane Lift) SWMS
Wind turbine tower section, nacelle, hub, and blade erection by crawler crane. Critical lift planning, weather window management, GWO crane signalling, exclusion zones.
SWMS variants reference your state’s WHS legislation. Instant download after payment.
Wind turbine erection by crawler crane is one of the most complex and high-consequence lifting operations performed in the Australian renewables sector. It involves lifting tower sections weighing 40-90 tonnes, a nacelle of 70-110 tonnes, a hub assembly, and three blades (typically 60-85m long) to hub heights now routinely exceeding 130m. Each pick is a critical lift requiring an engineered lift study, a weather window assessment (wind speed at hub height, gust differentials, and lightning probability), and tightly coordinated rigging crews working under Global Wind Organisation (GWO) signalling protocols.
This work is governed by the Work Health and Safety Act 2011 and the WHS Regulation 2025 (NSW model, mirrored in QLD, SA, ACT, NT, TAS, and substantively in WA's WHS Act 2020 and Vic's OHS Act 2004). Because the scope simultaneously involves work at height greater than 2 metres, energised electrical work (DC string and HV reticulation interfaces), and powered mobile plant, it triggers multiple High Risk Construction Work (HRCW) categories under Regulation 291.
Under Regulation 299, a SWMS must be prepared before HRCW commences, must be available at the workplace, and must be reviewed when controls are not adequately implemented or when the work changes. Failure to prepare, comply with, or stop work where a SWMS is not being followed exposes the PCBU to Category 1-3 offences under sections 31-33 of the WHS Act, with maximum penalties of $3.846M for a body corporate (Category 1, 2024-25 indexation).
Hazards identified
13 hazards covered, sorted by priority.
Fatal fall injuries; suspension trauma if rescue exceeds 15 minutes
Fatal head/torso impact to ground crew; energy from 100m drop exceeds 2,000J for a 1kg object
Multiple fatalities; catastrophic asset loss; ground bearing failure on tracked pads
Load swing, contact with tower, dropped load, crane instability
Fatal electrocution; secondary fire; equipment destruction
Severe burns, blast injuries, blindness; arc incident energy can exceed 40 cal/cm²
Fatal electrocution of crane crew and dogman; flashover at distances per AS/NZS 4576
Dropped 20+ tonne component; fatal crush injuries; site evacuation
Fatal crush; severed limbs; entrapment requiring confined-space rescue
Misaligned set, dropped load, two-blocking event
Fatal venous pooling within 15-30 minutes if rescue not effected
Musculoskeletal injury; dropped tool incidents; back and shoulder injuries
Heat exhaustion, heat stroke; long-term skin cancer risk
Control measures
Hierarchy-of-controls order: elimination → substitution → isolation → engineering → administrative → PPE.
- 1Engineered critical lift study signed by a chartered mechanical/structural engineer (RPEQ or CPEng) covering ground bearing pressure, crane configuration, radius, and dynamic load factors per AS 2550.1 and AS 1418.5
- 2Live wind monitoring at hub height via crane-mounted anemometer and met mast, with documented hold points: blade lifts halted at 8 m/s gust (or OEM limit, whichever is lower), nacelle at 10 m/s, tower at 12 m/s
- 3Lightning detection system (e.g. Strike Guard or Earth Networks) with mandatory tower evacuation at 10km strike radius and lift suspension at 15km
- 4GWO Slinger Signaller and Banksman certified personnel only; single dedicated crane operator-to-dogman radio channel; positive communication confirmed before each lift phase
- 5Exclusion zone of 1.5 × tip height established with hard barriers and spotters; no personnel under suspended load; tool tethering mandatory above 2m per AS/NZS 1891.4 lanyard principles
- 6Twin-rope fall arrest (work positioning + back-up) on all turbine climbs using EN 353-1/AS/NZS 1891.3 climb-assist systems; evacuation/rescue device on every climber within arm's reach
- 7Permit-to-Work for all energised electrical interfaces; LV/HV isolation under AS/NZS 4836; arc-rated PPE to ASTM F1959 with incident energy assessment per IEEE 1584
- 8Minimum approach distances to OHL maintained per AS/NZS 4576 and ENA NENS 04; tiger tails or de-energisation where 6.4m clearance cannot be guaranteed
- 9Pre-lift inspection of all rigging (blade yoke, tower clamps, slings) with current proof-load certificates; thorough examination every 12 months and inspection before every lift per WHS Reg 213
- 10Tower top rescue plan with two trained rescuers per shift, descender devices (Petzl EXO/Skylotec Milan) staged at nacelle and tower top platforms; rescue drill before each erection campaign
- 11Daily JSA toolbox covering weather forecast, lift sequence, sign-on, fitness for work, and fatigue check; hot/cold weather plan with rotation, shade, hydration per Safe Work Australia heat guidance
- 12OEM-approved blade installation aids (e.g. LiftWerx, Liftra, single-blade installer) used strictly within published wind and torque envelopes
- 13Independent crane and lift supervisor (Lift Director) on site for every critical lift, with authority to stop work; documented in lift plan per AS 2550.1 Section 9
Applicable Codes of Practice
Mandates SWMS for HRCW (Reg 291, 299), fall prevention hierarchy (Reg 78-79), and principal contractor duties (Reg 293)
Provides approved guidance on SWMS content, HRCW identification, and consultation
Hierarchy of fall controls applicable to turbine climb, nacelle, and blade work
Critical lift planning, ground assessment, and supervision of crawler crane operations
Design and operational limits for crawler cranes used in turbine erection
Selection, use, and inspection of harnesses, lanyards, anchorages, and rope-access for tower work
Minimum approach distances during crane slew near substation tie-in
Electrical installation requirements at tower base, transformer, and ring main unit interfaces
Where BESS is co-located with wind farm for grid-firming or black-start
Industry-mandated competency for working at height, manual handling, fire awareness, first aid, sea survival (offshore), and slinger-signaller duties
High-Risk Construction Work triggered
Turbine climbs to nacelle (80-150m), tower top platform work, hub access, and blade root bolt-up all occur well above the 2m threshold. Fall arrest is the primary control because elimination via scaffold or EWP is not reasonably practicable at hub height.
Commissioning interfaces with the WTG converter, pad-mount transformer, and 33kV ring main unit involve DC and HV energised work. Crane slew near overhead reticulation also creates an energised-services exposure.
Crawler cranes (typically 750-1,600 tonne class such as LR1750 or CC8800), telehandlers, and EWPs are continuously operated within the lay-down and erection zone, generating powered mobile plant exposure to crews on foot.
Because three HRCW categories apply, Regulation 299 requires a SWMS to be prepared before work starts, kept available for inspection, and reviewed if any control is not effectively implemented. Under section 32 of the WHS Act 2011, failure to comply with this duty where it exposes a person to a risk of death or serious injury is a Category 2 offence carrying a maximum penalty of $1.923M for a body corporate. The principal contractor must also ensure each subcontractor's SWMS is consistent with the WHS Management Plan under Reg 309.
Who this is for
- →Wind farm EPC contractors and balance-of-plant principal contractors
- →Turbine OEM erection crews (Vestas, GE Vernova, Siemens Gamesa, Goldwind, Nordex)
- →Crawler crane hire companies providing supervised operations to wind projects
- →Specialist rigging and blade-handling subcontractors
- →WHS managers and HSE advisors on renewable energy construction sites
- →Lift supervisors, dogmen, and slinger-signallers holding HRWL DG/RB tickets and GWO certifications
What you receive
- ✓Editable Microsoft Word (DOCX) SWMS template fully populated for wind turbine erection by crawler crane
- ✓State-specific legislation schedule covering NSW, QLD, VIC, WA, SA, TAS, ACT, and NT WHS/OHS Acts and Regulations
- ✓Hazard register with 13 pre-assessed hazards and risk matrix scoring (likelihood × consequence)
- ✓Worker sign-on register with competency verification fields (HRWL, GWO BST, EWP, electrical licence)
- ✓Pre-start lift checklist and weather hold-point register
- ✓Tower-top rescue plan template aligned with GWO Working at Heights module
- ✓Review and version control register meeting WHS Reg 300 requirements
- ✓Free updates for 12 months when legislation or referenced standards change
Worked example
On a 40-turbine project in the New England REZ, a crawler crane crew is scheduled to erect a 5MW turbine with a 150m hub height. At 0530 the Lift Director runs the SWMS toolbox: forecast shows hub-height winds rising from 6 to 11 m/s by 1100 with a 30% lightning probability after 1400. The team agrees a hold point — tower bottom and mid sections only, nacelle deferred. Two GWO-certified climbers ascend after sign-on, twin-roping to the EN 353-1 climb-assist, with the crane operator and dogman on a dedicated UHF channel. During the third tower section pick, the on-board anemometer records a 9.8 m/s gust. The dogman calls a hold per the SWMS wind matrix; the section is landed on stillage and crews stand down. At 1320 the Strike Guard alarms a strike at 12km — the SWMS triggers tower evacuation. All actions, hold points, and the early stand-down are logged on the SWMS daily record, demonstrating to the regulator (and the principal contractor's WHS auditor) that the documented controls were actually applied, not just written down.
Related legislation
- Work Health and Safety Act 2011 (Cth model) - sections 19 (primary duty), 31-33 (Category 1-3 offences)
- Work Health and Safety Regulation 2025 - Parts 4.4 (Falls), 4.5 (High Risk Work), 5.1 (Plant), 6.3 (Construction)
- Electricity Supply Act 1995 (NSW) and equivalents - network operator interface obligations
- Electrical Safety Act 2002 (QLD) / Electricity (Consumer Safety) Act 2004 (NSW) for licensed electrical work
- Environment Protection and Biodiversity Conservation Act 1999 (Cth) - bird and bat strike obligations during commissioning
- Civil Aviation Safety Regulations - obstacle lighting and CASA notification (CASR Part 139)
- Dangerous Goods (Road and Rail Transport) Regulations - for SF6, transformer oils, and lithium battery deliveries
Frequently asked questions
Does this SWMS cover offshore wind turbine erection?
No. This SWMS is scoped to onshore wind farm erection by crawler crane. Offshore work (e.g. proposed Gippsland and Hunter zones) introduces marine, jack-up vessel, sea survival, and Maritime Safety (Domestic Commercial Vessel) National Law requirements that demand a separate SWMS and Marine Coordination Plan.
Who must sign the SWMS before work begins?
Every worker performing the HRCW must sign on to confirm they have read, understood, and will comply with the SWMS (WHS Reg 300). The PCBU/employer representative, lift supervisor, and crane operator should also sign. Sign-on must be re-done whenever the SWMS is reviewed or a new worker joins the crew.
How does the SWMS interact with the OEM's installation manual?
The OEM manual (Vestas, GE, Siemens Gamesa, etc.) sets the technical lifting envelope — wind limits, rigging configuration, torque sequences. The SWMS sits above this and addresses the WHS risk controls required by Australian law. Where the OEM limit is stricter than the SWMS default, the OEM limit prevails; where Australian regulation is stricter, regulation prevails.
What competencies must crane and rigging crew hold?
At minimum: HRWL CN (slewing mobile crane over 100t) for the operator, DG (dogger) and RB (basic rigging) or RI (intermediate) for rigging crew, GWO BST (Working at Heights, Manual Handling, Fire Awareness, First Aid), GWO Slinger Signaller, and a current electrical licence for any energised interface work. Records must be sighted and logged on the sign-on register.
How often must this SWMS be reviewed?
Under WHS Reg 300, a SWMS must be reviewed and revised whenever a relevant control measure is changed, the work changes, a notifiable incident occurs, or a HSR requests a review. As a practical minimum, we recommend formal review at the start of each turbine campaign, after any near-miss, and at least every 12 months.
Is this SWMS valid in Victoria and Western Australia which use different legislation?
Yes. The template includes a state schedule that maps the model WHS clauses to Victoria's OHS Act 2004 / OHS Regulations 2017 and WA's WHS Act 2020 / WHS (General) Regulations 2022. The hazard controls and codes of practice are substantively equivalent across jurisdictions.