Safe Work Method Statement for Crane & Lifting Equipment Operations

Crane & Lifting Equipment

Used by 500+ Australian construction companies

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.

Crane and lifting equipment operations represent some of the most critical and high-risk activities in the Australian construction industry. From towering tower cranes on multi-storey developments to mobile cranes positioning heavy materials, and from truck-mounted cranes on residential sites to overhead gantry systems in industrial facilities, these operations require meticulous planning, qualified operators, and comprehensive safety documentation. Every lifting operation must be supported by a Safe Work Method Statement that identifies hazards, implements controls, and ensures compliance with Work Health and Safety regulations.

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

Crane & Lifting Equipment Overview

8 curated templates

Crane and lifting equipment operations represent some of the most critical and high-risk activities in the Australian construction industry. From towering tower cranes on multi-storey developments to mobile cranes positioning heavy materials, and from truck-mounted cranes on residential sites to overhead gantry systems in industrial facilities, these operations require meticulous planning, qualified operators, and comprehensive safety documentation. Every lifting operation must be supported by a Safe Work Method Statement that identifies hazards, implements controls, and ensures compliance with Work Health and Safety regulations.

Definition

What is Crane & Lifting Equipment?

Crane and lifting equipment encompasses a diverse range of mechanical devices designed to raise, lower, and move heavy loads across construction sites. This category includes mobile cranes that can be repositioned around sites, tower cranes that dominate city skylines during high-rise construction, truck-mounted cranes for versatile lifting tasks, overhead bridge and gantry cranes for industrial applications, self-erecting cranes for medium-rise projects, mini cranes for confined spaces, and personnel and materials hoists for vertical transportation. Each type of crane serves specific purposes within the construction workflow. Mobile cranes offer flexibility for projects requiring lifting operations at multiple locations, with capacities ranging from a few tonnes to hundreds of tonnes. Tower cranes provide the vertical reach and precision needed for high-rise construction, often remaining on site for months or years. Truck-mounted cranes combine mobility with lifting capability, ideal for quick lifts and material positioning. Overhead bridge and gantry cranes operate in fixed locations, typically in fabrication workshops or industrial facilities where repetitive lifting tasks occur. The operation of crane and lifting equipment requires more than just the crane itself. It involves qualified crane operators holding appropriate high-risk work licences, trained dogmen who direct lifting operations and attach loads, riggers who inspect and maintain lifting gear, and spotters who ensure safe clearances. Supporting equipment includes various lifting attachments such as hooks, slings, chains, shackles, spreader bars, and specialised lifting beams. Each component must be regularly inspected, tested, and certified to ensure safe operation under Australian standards.

Compliance impact

Why it matters

Crane and lifting operations represent one of the highest-risk activities in construction, with the potential for catastrophic incidents resulting in multiple fatalities, serious injuries, and significant property damage. According to Safe Work Australia, crane-related incidents account for a disproportionate number of construction fatalities, with common scenarios including load drops, crane collapses, contact with overhead powerlines, and workers being struck by suspended loads or moving crane components. The implementation of comprehensive Safe Work Method Statements is not merely a regulatory requirement but a critical safety control that can prevent these devastating incidents. Under the Work Health and Safety Act 2011, persons conducting a business or undertaking (PCBUs) have an absolute duty to eliminate risks associated with high-risk construction work, or where elimination is not reasonably practicable, to minimise those risks so far as is reasonably practicable. Crane and lifting operations are specifically identified as high-risk construction work under the WHS Regulations, triggering mandatory requirements for SWMS documentation, licensed operators, and specific safety controls. Failure to implement adequate safety measures can result in significant penalties, with maximum fines reaching $3.6 million for organisations and $600,000 for individuals. Beyond legal compliance, crane and lifting SWMS documentation serves several critical safety functions. It forces project teams to conduct thorough pre-lift planning, identifying potential hazards before work begins rather than reacting to incidents. It ensures that all personnel involved in the lift understand their roles, responsibilities, and the specific safety measures that apply. It provides a documented trail of safety considerations, valuable for incident investigation and continuous improvement. It demonstrates due diligence to regulators, insurers, and clients, showing that safety has been systematically considered and controlled. The Australian standards AS 1418 (Cranes, hoists and winches) and AS 2550 (Cranes, hoists and winches - Safe use) provide detailed technical requirements for crane operations, complementing the regulatory framework. These standards specify requirements for crane design, testing, maintenance, and operational procedures. A comprehensive SWMS integrates these technical requirements with site-specific hazards, creating a practical document that crane operators and supervisors can use daily. This integration of regulatory compliance, technical standards, and practical site conditions is what makes SWMS documentation so valuable in protecting workers and maintaining operational efficiency.

Key hazards in Crane & Lifting Equipment

Highlight high-risk scenarios before work begins.

Risk focus
Hazard

Load Drop or Loss of Control

Suspended loads that become unstable, detach from lifting gear, or exceed crane capacity can fall with devastating consequences. This hazard occurs when lifting gear fails, loads are incorrectly rigged, weight calculations are inaccurate, or operators exceed safe working loads. Workers positioned below or near suspended loads face crushing injuries or death. Contributing factors include worn or damaged slings, improper load attachment, dynamic loading during movement, and environmental conditions such as wind affecting load stability.

Hazard

Crane Structural Failure or Collapse

Cranes operating beyond their rated capacity, on unstable ground, or with structural defects can suffer catastrophic collapse. Tower crane collapses during erection or dismantling phases present extreme risk to workers and the public. Mobile crane tip-overs occur when outriggers are not properly deployed, ground conditions are inadequate, or loads exceed chart capacities for specific configurations. Regular structural inspections, ground assessment, and adherence to manufacturer specifications are critical controls.

Hazard

Contact with Overhead Powerlines

Crane booms, jibs, or suspended loads making contact with energised overhead powerlines can electrocute crane operators, ground personnel, and anyone touching the crane or load. This hazard is particularly acute with mobile cranes that move between locations and tower cranes with large operating radii. Even when cranes do not directly contact powerlines, electrical arcing can occur when equipment approaches within minimum clearance distances. Safe Work Australia data shows powerline contact incidents continue to cause fatalities despite clear regulatory requirements.

Hazard

Struck by Moving Crane Components

Workers can be struck by slewing crane superstructures, extending jibs, or counterweights as cranes rotate or reconfigure. Tower crane collisions between multiple cranes operating in proximity create complex hazards requiring careful coordination. Personnel working near crane swing paths may not maintain adequate awareness of crane movements, especially when visibility is limited or communication systems fail. Exclusion zones, physical barriers, and dedicated spotters are essential controls.

Hazard

Falls from Height During Assembly or Maintenance

Workers erecting, dismantling, or maintaining cranes, particularly tower cranes, work at extreme heights often in challenging conditions. Climbing tower crane masts, accessing operator cabins, or installing jib sections involves sustained work at height. Falls can result from inadequate edge protection, failed fall arrest systems, or loss of footing on access ladders and platforms. Weather conditions including high winds, rain, or ice significantly increase fall risks during these operations.

Hazard

Inadequate Communication and Coordination

Lifting operations involving crane operators, dogmen, riggers, and supervisors require clear, continuous communication. Breakdown in communication systems, misunderstood hand signals, or radio interference can lead to uncontrolled loads, equipment damage, or personnel injury. Multi-crane operations require sophisticated coordination to prevent crane-to-crane contact and ensure all operators understand the lift sequence. Language barriers, noise interference, and visual obstructions compound communication challenges.

Hazard

Ground Instability and Outrigger Failure

Mobile cranes rely on proper ground preparation and outrigger deployment to maintain stability during lifting operations. Soft ground, underground voids, buried services, or inadequate outrigger pads can allow cranes to settle unevenly or tip over during lifts. Ground conditions may change due to weather, excavation activities, or loading from adjacent equipment. Ground assessment by qualified engineers and continuous monitoring during operations are critical controls.

Hazard

Lifting Gear and Rigging Failure

Slings, chains, shackles, hooks, and other rigging components subjected to loads, wear, corrosion, and impact can fail unexpectedly. Rigging failures often result from exceeding working load limits, using damaged equipment, incorrect rigging configurations, or inadequate inspection regimes. Each lifting accessory requires regular inspection, proof load testing, and retirement when wear limits are reached. Rigging failures can cause load drops, uncontrolled load swings, or personnel injury from recoiling components.

Benefits of using a Crane & Lifting Equipment SWMS

  • Demonstrate compliance with WHS Act 2011 high-risk construction work requirements and avoid penalties of up to $3.6 million for organisational breaches
  • Prevent catastrophic incidents including crane collapses, load drops, and powerline contacts through systematic hazard identification and control implementation
  • Ensure all crane operators hold current high-risk work licences and dogmen are appropriately trained as required by WHS Regulations
  • Document pre-lift planning including load calculations, ground assessments, and lift plans required by AS 2550 safe use standards
  • Establish clear communication protocols between crane operators, dogmen, riggers, and supervisors to prevent coordination failures
  • Implement mandatory inspection schedules for cranes, lifting gear, and rigging equipment as specified in AS 1418 standards
  • Create exclusion zones and access controls that protect workers and the public from crane swing paths and falling objects
  • Provide evidence of due diligence to WorkSafe inspectors, insurers, and principal contractors during audits and site investigations

Available SWMS templates

Hand-crafted documents ready to customise for your teams.

View all 8 documents

Frequently asked questions

What qualifications are required to operate cranes in Australia?

Crane operators in Australia must hold a high-risk work licence specific to the class of crane they operate, issued by a state or territory regulator such as WorkSafe. Licence classes include bridge and gantry crane, derrick crane, portal or pedestal crane, tower crane, vehicle loading crane, and non-slewing mobile crane. Operators must complete nationally recognised training, demonstrate competency, and maintain their licence through renewal processes. Additionally, dogmen who direct crane operations and attach loads require separate high-risk work licences. All licences must be verified before workers commence crane operations, and copies should be retained as part of SWMS documentation.

How often must crane and lifting equipment be inspected?

Crane inspection requirements are specified in AS 2550 and WHS Regulations. Daily pre-operational inspections must be conducted by crane operators before each shift, checking critical safety systems, controls, and visual indicators. Monthly inspections by competent persons examine structural components, mechanical systems, and safety devices in detail. Annual major inspections by qualified engineers include load testing and structural assessment. Lifting gear including slings, chains, and shackles require inspection before each use, with formal documented inspections at intervals specified by the manufacturer or AS 1418 standards. Any defects identified during inspections must be rectified before equipment returns to service, and inspection records must be maintained for the working life of the equipment plus five years.

What is required in a lift plan for complex crane operations?

Complex crane lifts require documented lift plans prepared before work commences. The lift plan must identify the load weight, dimensions, and centre of gravity; specify the crane type, configuration, and capacity; document ground conditions and required ground preparation; identify hazards including overhead powerlines, underground services, and structures; specify rigging methods, lifting gear, and attachment points; define exclusion zones and traffic management measures; assign responsibilities to crane operators, dogmen, riggers, and supervisors; establish communication methods including signals and radio protocols; and outline emergency procedures for equipment failure or adverse weather. The lift plan must be reviewed and approved by qualified supervisors and communicated to all personnel involved in the operation through toolbox meetings before work begins.

What are the minimum clearance distances from overhead powerlines?

Work Health and Safety Regulations and electrical safety codes specify minimum clearance distances between cranes and overhead powerlines based on voltage levels. For powerlines up to 132,000 volts, the minimum clearance is three metres for the crane, jib, load, or any lifting gear. For voltages between 132,000 and 330,000 volts, clearances increase to six metres. For any voltage, if exact voltage cannot be confirmed, a clearance of six metres must be maintained. These clearances apply in all directions and account for electrical arcing potential. Where maintaining clearances is not practicable, powerlines must be de-energised and isolated by the electricity authority, with confirmation provided before crane operations commence. Overhead powerline hazards must be identified during site assessment, marked on lift plans, and briefed to all crane operators and dogmen.

Who is responsible for ensuring crane SWMS compliance on construction sites?

Under the WHS Act, multiple parties share responsibility for crane operation safety. The principal contractor for a construction project has overarching responsibility to ensure all high-risk construction work, including crane operations, is conducted in accordance with SWMS requirements. The crane contractor or subcontractor who supplies the crane and operator must prepare and implement the SWMS, ensuring it is site-specific and addresses all identified hazards. The site supervisor or construction manager must ensure the SWMS is followed and workers are not directed to deviate from documented procedures. Crane operators and dogmen have individual responsibility to work according to the SWMS and report hazards or unsafe conditions. WorkSafe inspectors can prosecute any party who fails to meet their obligations, and all parties can be held liable in the event of an incident. Effective SWMS implementation requires coordination and communication between all responsible parties throughout the duration of crane operations.

Explore related categories

What is Crane & Lifting Equipment?

Crane and lifting equipment encompasses a diverse range of mechanical devices designed to raise, lower, and move heavy loads across construction sites. This category includes mobile cranes that can be repositioned around sites, tower cranes that dominate city skylines during high-rise construction, truck-mounted cranes for versatile lifting tasks, overhead bridge and gantry cranes for industrial applications, self-erecting cranes for medium-rise projects, mini cranes for confined spaces, and personnel and materials hoists for vertical transportation. Each type of crane serves specific purposes within the construction workflow. Mobile cranes offer flexibility for projects requiring lifting operations at multiple locations, with capacities ranging from a few tonnes to hundreds of tonnes. Tower cranes provide the vertical reach and precision needed for high-rise construction, often remaining on site for months or years. Truck-mounted cranes combine mobility with lifting capability, ideal for quick lifts and material positioning. Overhead bridge and gantry cranes operate in fixed locations, typically in fabrication workshops or industrial facilities where repetitive lifting tasks occur. The operation of crane and lifting equipment requires more than just the crane itself. It involves qualified crane operators holding appropriate high-risk work licences, trained dogmen who direct lifting operations and attach loads, riggers who inspect and maintain lifting gear, and spotters who ensure safe clearances. Supporting equipment includes various lifting attachments such as hooks, slings, chains, shackles, spreader bars, and specialised lifting beams. Each component must be regularly inspected, tested, and certified to ensure safe operation under Australian standards.

Why Crane & Lifting Equipment SWMS Matters

Crane and lifting operations represent one of the highest-risk activities in construction, with the potential for catastrophic incidents resulting in multiple fatalities, serious injuries, and significant property damage. According to Safe Work Australia, crane-related incidents account for a disproportionate number of construction fatalities, with common scenarios including load drops, crane collapses, contact with overhead powerlines, and workers being struck by suspended loads or moving crane components. The implementation of comprehensive Safe Work Method Statements is not merely a regulatory requirement but a critical safety control that can prevent these devastating incidents. Under the Work Health and Safety Act 2011, persons conducting a business or undertaking (PCBUs) have an absolute duty to eliminate risks associated with high-risk construction work, or where elimination is not reasonably practicable, to minimise those risks so far as is reasonably practicable. Crane and lifting operations are specifically identified as high-risk construction work under the WHS Regulations, triggering mandatory requirements for SWMS documentation, licensed operators, and specific safety controls. Failure to implement adequate safety measures can result in significant penalties, with maximum fines reaching $3.6 million for organisations and $600,000 for individuals. Beyond legal compliance, crane and lifting SWMS documentation serves several critical safety functions. It forces project teams to conduct thorough pre-lift planning, identifying potential hazards before work begins rather than reacting to incidents. It ensures that all personnel involved in the lift understand their roles, responsibilities, and the specific safety measures that apply. It provides a documented trail of safety considerations, valuable for incident investigation and continuous improvement. It demonstrates due diligence to regulators, insurers, and clients, showing that safety has been systematically considered and controlled. The Australian standards AS 1418 (Cranes, hoists and winches) and AS 2550 (Cranes, hoists and winches - Safe use) provide detailed technical requirements for crane operations, complementing the regulatory framework. These standards specify requirements for crane design, testing, maintenance, and operational procedures. A comprehensive SWMS integrates these technical requirements with site-specific hazards, creating a practical document that crane operators and supervisors can use daily. This integration of regulatory compliance, technical standards, and practical site conditions is what makes SWMS documentation so valuable in protecting workers and maintaining operational efficiency.

Trusted by 1,500+ Australian construction teams

Crane & Lifting Equipment SWMS Sample

Professional SWMS created in 5 seconds

  • 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.