Comprehensive SWMS for Piggyback Forklift Operation

Truck-mounted Forklift Safe Work Method Statement

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Truck-mounted forklift operation, commonly known as piggyback forklift work, involves the use of specialised forklifts that are mounted on and transported by delivery trucks, providing self-unloading capability for delivering palletised goods to remote construction sites and locations without permanent materials handling equipment. These compact forklifts are hydraulically or mechanically deployed from the rear of trucks, used to unload deliveries, and then remounted on the vehicle for transport to the next location. This SWMS addresses the critical safety requirements for truck-mounted forklift operations including deployment and stowage procedures, stability considerations during mounted operation, high-risk work licensing requirements, and coordination with site personnel in compliance with Australian WHS legislation.

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Overview

What this SWMS covers

Truck-mounted forklifts, universally known in the transport industry as piggyback forklifts, are compact counterbalance forklifts specifically designed to be carried on the rear of delivery trucks and deployed at delivery locations for self-unloading operations. This configuration eliminates the need for separate delivery vehicles and unloading equipment, providing a complete delivery solution particularly valuable for construction sites and remote locations where permanent materials handling equipment is unavailable. The piggyback forklift mounts on a purpose-built subframe attached to the truck's rear chassis rails, secured in place by hydraulic or mechanical locking systems that must be fully engaged during road transport. These specialised forklifts are typically smaller and lighter than conventional warehouse forklifts, with lifting capacities ranging from 1.5 to 3 tonnes, sufficient for most palletised building materials and construction supplies. The forklift's battery, hydraulic, and steering systems are fully self-contained, operating independently when deployed from the truck. Deployment involves releasing locking mechanisms, extending deployment rails or ramps from the truck rear, and driving the forklift backward off the truck onto ground level. The process reverses for remounting, with the operator driving the forklift up deployment ramps and engaging locking systems to secure it for transport. Modern systems incorporate hydraulic deployment mechanisms reducing manual handling requirements, but many units still require manual engagement of securing pins and safety chains. Truck-mounted forklift operations occur predominantly in construction materials delivery including bricks, blocks, bagged materials, timber, roofing supplies, and landscaping products. Deliveries often occur at active construction sites with ongoing work, congested access, uneven ground conditions, and multiple hazards including excavations, overhead services, and other mobile plant operating simultaneously. Remote deliveries to residential construction sites, rural properties, or locations with restricted access present unique challenges including limited manoeuvring space, sloped driveways or access roads, soft ground conditions, and absence of designated materials handling areas. The work requires coordination between the truck driver (who typically also operates the forklift), site supervisors receiving deliveries, other construction workers who must maintain clear distance during unloading operations, and potentially traffic controllers if deliveries occur in roadways or public areas. Operators face multiple role transitions during a typical delivery: driving the truck on public roads under Heavy Vehicle National Law obligations, deploying and operating the piggyback forklift under high-risk work licensing requirements, and coordinating with site personnel under construction site safety management requirements. This multi-faceted role demands competence across various operational domains and understanding of different regulatory frameworks that apply to each work phase. Australian WHS regulations require truck-mounted forklift operators to hold current High Risk Work Licences for forklift operation (Class LF), regardless of the forklift's mounted configuration. The operation is classified as high-risk work requiring specific competency assessment and licensing. Additionally, operators require appropriate truck driver licensing for the vehicle's mass classification, and should receive specific training in piggyback deployment and mounting procedures, as these specialised operations are not covered in standard forklift training programs. Equipment inspection and maintenance is critical as piggyback forklifts experience significant vibration and stress during road transport that conventional warehouse forklifts do not encounter, potentially causing accelerated wear of critical components and requiring enhanced maintenance schedules.

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

Why this SWMS matters

Truck-mounted forklift operations combine the hazards of heavy vehicle transport, powered industrial equipment operation, and construction site materials handling into a complex high-risk activity. Incidents involving piggyback forklifts have resulted in serious injuries and fatalities including operators crushed during deployment or mounting operations, tip-overs on unstable ground at delivery sites, forklift detachment during road transport causing collisions, and pedestrians struck by forklifts operating in congested site environments. The combination of equipment complexity, variable operating environments, and role transitions between truck driving and forklift operation creates multiple opportunities for incidents if comprehensive safety management is not implemented. Under the Work Health and Safety Act 2011, persons conducting a business or undertaking have duties to ensure plant equipment including truck-mounted forklifts is properly maintained, operators are appropriately trained and licensed, safe operating procedures are documented and followed, and risks are systematically identified and controlled. High-risk work licensing regulations specifically address forklift operation, requiring operators to hold current licences and prohibiting persons from operating forklifts without appropriate credentials. Compliance verification by work health and safety inspectors can result in on-the-spot fines for unlicensed operation, prohibition notices halting operations, and prosecution for serious breaches. For business operators, the chain of responsibility framework under Heavy Vehicle National Law extends legal obligations to ensure drivers are not fatigued, vehicles are properly maintained, and loads are appropriately secured, with potential liability for directors and managers who influence transport operations. Beyond regulatory compliance, incidents involving truck-mounted forklifts create substantial business consequences. Forklift tip-overs at customer sites cause property damage and relationship harm with construction clients. Injuries to site personnel during delivery operations result in workers compensation claims, potential common law damages, and reputational damage affecting future business opportunities. Equipment damage from deployment failures or transport incidents creates operational disruption and repair costs. Insurance premiums increase following claims, and serious incidents can result in loss of preferred supplier status with major construction companies who require demonstrated safety performance from their supply chain partners. The remote nature of many piggyback forklift operations, occurring at dispersed construction sites without direct supervision, makes comprehensive SWMS documentation particularly important. Operators often work independently without immediate supervisor oversight, making documented procedures and competency-based training essential for ensuring consistent safe practices. SWMS provides operators with clear guidance on deployment sequences, site assessment requirements, stability considerations for various ground conditions, and emergency procedures for equipment malfunctions. Documentation also supports induction of new operators, provides evidence of safety management for tender responses and client audits, and creates a framework for incident investigation and continuous improvement when issues are identified through near-miss reporting or operational feedback.

Reinforce licensing, insurance, and regulator expectations for Truck-mounted Forklift 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

Forklift Instability During Deployment and Mounting Operations

High

The deployment and mounting phases when the piggyback forklift transitions between secured transport position and ground-level operation present critical stability hazards. During deployment, the forklift must be driven backward down deployment ramps or rails that extend from the truck's rear. If deployment ramps are not properly positioned, are damaged, or if the forklift is not aligned with ramps, the forklift can veer off the deployment path and fall from the truck, potentially crushing the operator or nearby personnel. The transition point where forklift wheels leave the truck platform and contact the deployment ramps is particularly hazardous as weight transfer occurs and the forklift angle changes. During mounting operations, operators must drive the forklift up the inclined ramps onto the truck platform, a process requiring precise control and adequate traction. If ramps are wet, oily, or contaminated with mud, wheels may slip causing loss of control. Attempting to mount the forklift on uneven ground where the truck is not level creates lateral stability risks. The confined space around the rear of trucks limits visibility and escape routes if control is lost. Operator error including excessive speed, misalignment with ramps, or failure to verify deployment mechanism is fully extended before attempting to deploy can all result in falls from height and crushing injuries.

Consequence: Operators crushed by falling or tipping forklifts during deployment or mounting, serious injuries from falls when forklifts veer off ramps, damage to expensive forklift and truck equipment requiring major repairs, and potential injuries to nearby personnel if forklifts fall in occupied areas.

Forklift Detachment During Road Transport Due to Inadequate Securing

High

Piggyback forklifts must be positively secured to truck mounting frames during road transport to prevent detachment under dynamic loading conditions including braking, cornering, and road surface irregularities. Securing systems typically include hydraulic locking clamps, mechanical securing pins, safety chains, and wheel chocks, all of which must be properly engaged before transport commences. Incomplete securing procedures where operators fail to fully engage all locking mechanisms, damaged or worn securing components that do not provide rated holding capacity, or vibration-induced loosening of mechanical fasteners during transport can all lead to partial or complete forklift detachment. A partially secured forklift may remain attached during normal driving but detach suddenly during heavy braking or if the truck strikes potholes or road surface irregularities. Complete detachment allows the forklift to fall from the truck onto the roadway, creating catastrophic hazards for following traffic and potentially causing major collisions. Even without complete detachment, inadequate securing allows forklift movement during transport, causing impact damage to securing systems and progressively degrading their effectiveness. Operators under time pressure may rush through securing procedures, skipping verification checks or failing to fully engage locking mechanisms. Worn or damaged securing components may appear engaged but lack adequate holding capacity.

Consequence: Catastrophic incidents if forklifts detach during highway transport, potentially causing multi-vehicle collisions, fatalities to other road users struck by detached forklifts, substantial equipment damage, and criminal prosecution for dangerous operation of vehicles on public roads.

Forklift Tip-Over on Unstable or Sloped Ground at Delivery Locations

High

Piggyback forklift operations occur at diverse construction sites and delivery locations with highly variable ground conditions, many of which present significant tip-over risks. Unlike warehouse forklifts operating on level concrete floors, piggyback units must work on uneven construction site surfaces, sloped residential driveways, soft ground after rain, gravel or unsealed surfaces, and areas with underground service trenches or drainage that may collapse under forklift weight. The compact size and relatively short wheelbase of piggyback forklifts make them more susceptible to tip-over than larger warehouse units when operating on slopes or uneven ground. Lateral tip-over occurs when travelling across slopes with elevated loads, with the high centre of gravity exceeding the stability triangle. Forward tip-over can occur when lowering heavy loads on downward slopes or when loads extend beyond the forklift's rated capacity. Soft ground including recently excavated areas, saturated soil, or inadequately compacted fill allows wheels to sink differentially, creating lateral instability. Operators accustomed to stable warehouse environments may not adequately assess construction site ground conditions before commencing operations. Time pressure to complete deliveries quickly may override proper ground assessment and lead to operations in marginal conditions.

Consequence: Operator fatalities or serious crush injuries in forklift tip-over incidents, damage to delivered materials if forklifts tip with loads, equipment damage requiring major repairs or replacement, and potential injuries to construction site workers if tip-overs occur in occupied areas.

Pedestrian and Worker Interactions in Congested Construction Sites

High

Piggyback forklift operations occur at active construction sites where multiple trades are working simultaneously, creating substantial risks of collisions between forklifts and pedestrians. Construction workers may be focused on their own tasks and not monitoring for forklift movements, particularly when deliveries arrive during busy work periods. The compact size of piggyback forklifts makes them highly manoeuvrable but also reduces visibility for operators, with significant blind spots behind and to the sides. Backup alarms and warning lights may not be heard or seen in high-noise construction environments with other equipment operating. Site layouts often include congested areas with limited clearance, requiring forklifts to operate in close proximity to workers, excavations, and structures. Uncontrolled sites without designated traffic routes or exclusion zones during materials handling operations increase collision risks. Residential construction sites may have homeowners, children, or visitors present who are unfamiliar with construction hazards and may not recognise forklift dangers. Language barriers in diverse construction workforces can impair communication about forklift movements and safety requirements. The transient nature of delivery operations means forklift operators may be unfamiliar with specific site layouts, hazard locations, and site-specific traffic management arrangements.

Consequence: Fatalities or serious injuries to pedestrians struck by forklifts or falling loads, crush injuries to workers trapped between forklifts and structures, multiple injuries if forklifts strike groups of workers, and permanent disability from being run over or caught under forklift wheels.

Overhead Power Line Contact During Elevated Load Handling

High

Construction site deliveries frequently occur in locations with overhead power lines including residential subdivisions, commercial developments, and industrial sites. When piggyback forklifts raise loads to maximum lift height, the combined height of the forklift mast and elevated load can exceed 4-5 metres, creating substantial risk of contact with overhead power lines. Low-voltage residential power lines typically have minimum heights of 5-6 metres, but service lines to individual properties may have reduced clearances. High-voltage distribution lines may be present at some sites requiring clearances exceeding 3 metres from conductors. Operators focused on load placement may not maintain adequate awareness of overhead hazards, particularly when operating in unfamiliar delivery locations. Varying ground levels mean that clearances may be adequate in some areas of a site but insufficient in others. Insulated loads do not provide protection as electricity can arc from conductors to forklifts at close proximity without actual contact. Time pressure and lack of formal risk assessment before commencing work at new delivery locations increase the likelihood of operating near power lines without proper clearance verification. Some operators may not understand the extreme danger of power line contact, falsely believing that rubber tyres provide insulation or that low-voltage lines are not lethal.

Consequence: Electrocution fatalities to forklift operators following power line contact, serious burns and cardiac arrest injuries to operators and ground personnel, potential electrocution of workers attempting rescue before power is isolated, catastrophic equipment damage from electrical faults, and fire risks from arcing and sparks igniting combustible materials.

Equipment Maintenance Deficiencies Due to Transport Environment

Medium

Truck-mounted forklifts experience significantly more severe operating environments than conventional warehouse forklifts due to road transport vibration, weather exposure, and variable site conditions. Vibration during road transport at highway speeds causes accelerated wear of hydraulic components, electrical connections, battery terminals, and structural fasteners. Components that would last years in warehouse service may require more frequent inspection and replacement on piggyback units. Exposure to road spray, rain, and weather while mounted on trucks causes corrosion of exposed components and deterioration of electrical systems. The transport environment introduces contamination including road grime, dust, and moisture into hydraulic systems if seals are not perfect. Operators may not recognise that piggyback forklifts require enhanced maintenance schedules compared to warehouse units, leading to progressive deterioration of critical safety components. Tyres experience additional wear from the mounting and deployment process, with potential damage from impacts against deployment ramps. Battery charging may be less systematic than in warehouse environments where forklift charging is scheduled, leading to inadequate charging and reduced battery performance. Pre-operation inspections may be rushed or incomplete due to time pressures in delivery operations.

Consequence: Equipment failures during operation including hydraulic system malfunctions, steering failures, brake deterioration causing inability to stop, electrical system failures affecting lights and alarms, and battery depletion during unloading operations creating hazards when trying to remount partially charged forklifts.

Control measures

Deploy layered controls aligned to the hierarchy of hazard management.

Implementation guide

Comprehensive Deployment and Mounting Procedure Documentation and Training

Administrative

Preventing incidents during deployment and mounting operations requires detailed documented procedures specific to each truck-mounted forklift configuration, as deployment mechanisms vary significantly between manufacturers and equipment models. Procedures must specify the precise sequence for deployment including parking brake application, hydraulic system activation, locking mechanism release, deployment ramp extension, verification of ramp positioning, and the controlled process for driving the forklift down deployment ramps. Mounting procedures must address ground positioning requirements for the truck, deployment ramp cleaning and inspection, alignment verification before commencing mounting, and the sequence for securing all locking mechanisms after mounting. Operators must receive hands-on training in these specific procedures and demonstrate competency before authorisation for independent operation. Visual aids including laminated procedure cards mounted in truck cabs and photographic guides showing correct deployment positions provide on-the-spot reference to support operator decision-making during these critical operations.

Implementation

1. Develop equipment-specific deployment and mounting procedures for each truck-mounted forklift configuration in the fleet, recognising that procedures vary between manufacturers and models. 2. Create detailed step-by-step procedures addressing pre-deployment checks, deployment sequence, safety verifications at each step, mounting sequence, and post-mounting securing verification. 3. Provide comprehensive operator training including theoretical instruction on deployment systems and hands-on practical exercises under supervision of experienced trainers. 4. Require competency assessment where operators demonstrate correct deployment and mounting procedures before authorisation for independent operation. 5. Install laminated procedure cards in truck cabs showing deployment and mounting sequences with photographs and critical safety checkpoints. 6. Implement buddy system for initial deployments at new delivery locations or for operators with limited experience, ensuring experienced personnel supervise critical operations. 7. Establish clear authority for operators to refuse deployment or mounting operations when ground conditions, weather, or site constraints make operations unsafe, without penalty or time pressure. 8. Document deployment and mounting operations in delivery documentation, creating accountability and providing evidence of procedures followed in event of incidents.

Forklift Securing System Inspection and Verification Protocols

Engineering

Ensuring piggyback forklifts remain securely attached during road transport requires rigorous inspection and verification protocols for all securing systems. This engineering control includes daily pre-departure inspection of hydraulic locking systems, mechanical securing pins, safety chains, and wheel chocks, verification that all components are undamaged and functioning correctly, and documented confirmation that all securing mechanisms are fully engaged before transport commences. Any worn, damaged, or malfunctioning securing components must be repaired or replaced before the vehicle is used for transport operations. Post-mounting verification should include physical checks that cannot be defeated by casual visual inspection, such as attempting to manually move the forklift to verify locking systems have engaged. Periodic detailed inspection by qualified mechanics should verify securing system integrity, test hydraulic locking pressure, and replace wearing components before failures occur. This systematic approach treats forklift securing as a critical safety system requiring active management throughout the equipment's service life.

Implementation

1. Develop detailed inspection checklist for forklift securing systems covering all locking mechanisms, safety chains, mounting frame condition, and securing pin integrity. 2. Train operators and mechanics in securing system inspection, ensuring understanding of how each component functions and what constitutes defects requiring repair. 3. Require documented daily inspection of securing systems before first use, with checklists retained for verification and trend analysis of component wear patterns. 4. Implement positive verification procedures after mounting where operators physically test that forklifts are secured by attempting to move them manually before departing delivery locations. 5. Install securing system status indicators where possible, providing visual or audible confirmation that all locking mechanisms are fully engaged. 6. Establish quarterly detailed inspection by qualified mechanics with securing system expertise, including disassembly and examination of wear-critical components. 7. Maintain securing system maintenance logs documenting inspection results, wear patterns observed, components replaced, and any modifications or repairs completed. 8. Implement incident reporting procedures for any securing system anomalies including difficulty engaging locks, unusual noises during transport, or evidence of forklift movement while secured.

Site Assessment and Ground Stability Evaluation Before Forklift Operations

Administrative

Preventing forklift tip-over incidents at delivery locations requires systematic site assessment before unloading operations commence. This control includes driving the delivery site perimeter to assess ground conditions, identifying slopes or uneven areas that present stability risks, checking for underground service covers or soft ground that may collapse under forklift weight, identifying overhead hazards including power lines and structures, and verifying adequate clearance for forklift operation. Where ground stability is questionable, ground preparation including placement of timber mats or steel plates may be required before forklift operation. On sloped sites, establishing level unloading areas or limiting forklift operations to the most level available ground reduces tip-over risk. Communication with site supervisors about ground conditions, recent excavation work, or known underground voids provides additional hazard intelligence. This systematic approach ensures operators make informed decisions about whether conditions allow safe forklift operation or whether alternative unloading methods are required.

Implementation

1. Train operators in ground assessment techniques including recognition of soft soils, identification of slope angles requiring caution, and awareness of underground service indicators. 2. Provide ground assessment tools including simple inclinometers or smartphone apps for measuring slope angles, with clear guidance on maximum slope angles for safe operation. 3. Establish procedures requiring site walk-around assessment before deploying forklifts, with documented site assessment for high-risk locations. 4. Develop communication protocols for engaging with site supervisors to discuss ground conditions, recent excavation work, and known underground hazards before unloading. 5. Equip trucks with ground stabilisation materials including timber mats or steel plates for use on soft ground when absolutely necessary, though preference should be for relocating operations to stable ground. 6. Specify maximum slope angles for piggyback forklift operations with graduated restrictions: level ground preferred, slopes up to 5 degrees acceptable with caution, slopes 5-10 degrees requiring supervisor approval, slopes above 10 degrees prohibited. 7. Implement authority for operators to refuse delivery at locations where ground conditions make safe forklift operation impossible, with escalation to transport managers for resolution rather than accepting unsafe conditions. 8. Document ground conditions at delivery locations in delivery records, building site knowledge for return deliveries and providing evidence of conditions encountered if incidents occur.

Pedestrian Exclusion Zones and Site Coordination Procedures

Administrative

Managing pedestrian risks during piggyback forklift operations requires establishing exclusion zones around operating forklifts and coordinating with site personnel to ensure workers remain clear during materials handling. This includes pre-delivery communication with site supervisors to coordinate delivery timing, establishing exclusion zones marked by barriers or delineators during unloading operations, using spotters to monitor for pedestrians and alert the forklift operator of worker movements, and verifying site workers understand they must remain clear of forklift operating areas until unloading is complete. Forklift audible alarms and rotating beacons must be functional and activated throughout operations. High-visibility clothing for forklift operators ensures visibility to site workers. On residential sites with public access, additional controls including temporary fencing and active monitoring for children or residents may be required. The coordination level must match site risk, from simple communication with site supervisors at controlled sites through to physical barriers and dedicated spotters at high-risk locations.

Implementation

1. Develop pre-delivery communication procedures requiring contact with site supervisors to discuss delivery timing, site access arrangements, and coordination with ongoing work. 2. Equip delivery vehicles with portable barriers, traffic cones, or delineators for establishing forklift exclusion zones during unloading operations. 3. Train operators in exclusion zone establishment and coordination with site personnel, including communication phrases and hand signals for directing workers to maintain distance. 4. Implement spotter requirements for high-risk sites including residential locations with public access, congested construction sites with multiple trades, or sites with restricted visibility. 5. Require verification that forklift audible alarms and rotating beacons are functional during pre-operation inspection, with immediate repair if defects are identified. 6. Mandate high-visibility clothing compliant with AS/NZS 4602.1 for all forklift operators during delivery operations, ensuring visibility to site workers. 7. Establish hold-point procedures for deliveries to sites with inadequate control of pedestrian movements, requiring discussion with transport supervisors before proceeding. 8. Document site coordination arrangements in delivery records including names of site supervisors contacted, exclusion zone measures implemented, and any issues encountered requiring follow-up.

Overhead Power Line Clearance Verification and Safe Work Procedures

Elimination

Preventing overhead power line contact requires systematic identification and management of power line hazards before forklift operations commence. This elimination-level control includes pre-delivery site assessment to identify overhead power lines, measurement or estimation of power line height and available clearances, determination of maximum lift height required for unloading operations, and comparison of available clearance against required clearances specified in electricity safety regulations (typically 3 metres for high-voltage lines, reduced distances for low-voltage with risk assessment). Where adequate clearance cannot be achieved, elimination controls include relocating unloading areas away from power lines, using alternative unloading methods not involving elevated loads, or arranging temporary power line isolation through electricity providers. Engineering controls include installing height-limiting devices on forklift masts preventing elevation beyond safe heights, or installing physical barriers preventing forklift access to areas beneath power lines. Administrative controls include clearly marking power line locations, posting warning signs, and implementing supervisor verification before any elevated load handling near power lines. This hierarchy approach addresses the catastrophic consequences of power line contact through robust preventive measures.

Implementation

1. Train operators in overhead power line recognition, clearance requirements specified in state/territory electrical safety regulations, and understanding that electricity can arc to plant without actual contact. 2. Require site assessment for overhead power lines before deploying forklifts at new delivery locations, with power lines marked or flagged if present. 3. Implement procedures requiring operators to determine maximum load elevation height needed for delivery and compare against available clearance beneath power lines. 4. Establish minimum clearance requirements based on voltage: 3 metres from high-voltage lines, 1 metre from low-voltage residential services, with greater clearances if risk assessment identifies elevated risk. 5. Require relocation of unloading areas or use of alternative methods when adequate clearances cannot be achieved, eliminating the hazard rather than accepting marginal clearances. 6. Consider height-limiting devices on forklift masts for operations in areas with persistent overhead power line hazards, preventing mast elevation beyond pre-set safe heights. 7. Implement power line awareness spotters for delivery locations with marginal clearances, providing dedicated observation and immediate warning if clearances appear inadequate. 8. Establish emergency response procedures for power line contact including keeping personnel clear until power is confirmed isolated, not attempting rescue while power may be present, and immediate notification of electricity provider and emergency services.

Enhanced Maintenance Schedules for Transport Environment Conditions

Engineering

Addressing the accelerated wear that truck-mounted forklifts experience due to road transport environments requires enhanced maintenance schedules exceeding manufacturer recommendations for warehouse forklifts. This includes more frequent inspection of components susceptible to vibration damage including hydraulic hoses, electrical connections, and structural fasteners, systematic inspection and replacement of tyres showing transport-related wear, enhanced battery maintenance including regular topping of battery water and verification of charging effectiveness, and corrosion prevention measures for components exposed to road spray and weather. Maintenance schedules should account for road transport hours in addition to forklift operating hours, recognising that vibration during transport causes wear even when forklifts are not operating. Comprehensive service records tracking both transport and operational usage support predictive maintenance and component replacement before failures occur. This proactive engineering approach maintains equipment integrity despite the harsh transport environment.

Implementation

1. Develop maintenance schedules specific to truck-mounted forklifts, incorporating both forklift operating hours and road transport hours in determining service intervals. 2. Specify enhanced inspection frequencies for vibration-sensitive components including hydraulic hoses (inspect weekly), electrical connections (inspect monthly), and structural fasteners (torque check quarterly). 3. Implement tyre inspection and replacement schedules accounting for both operational wear and damage from mounting/deployment processes, with tyres replaced more frequently than warehouse forklift equivalents. 4. Establish battery maintenance protocols including weekly water level checks, monthly charging system verification, and battery replacement when capacity testing shows degradation below acceptable levels. 5. Implement corrosion prevention measures including protective coatings on exposed components, regular washing to remove road salt and grime, and enhanced greasing schedules for exposed moving parts. 6. Maintain comprehensive maintenance logs tracking both scheduled maintenance completion and unscheduled repairs, analysing patterns to identify components requiring enhanced attention. 7. Train operators in enhanced pre-operation inspection procedures recognising transport-related wear patterns, with clear defect reporting processes ensuring maintenance issues are identified and addressed promptly. 8. Establish relationships with forklift service providers understanding truck-mounted applications and able to provide specialist maintenance support and genuine replacement parts.

Personal protective equipment

High-Visibility Vest

Requirement: Class D Day/Night compliant with AS/NZS 4602.1

When: Mandatory for all truck-mounted forklift operations at construction sites and delivery locations to ensure visibility to other workers, plant operators, and site traffic. Must be worn throughout deployment, operation, and mounting phases.

Steel Toe Cap Safety Boots

Requirement: Certified to AS/NZS 2210.3 with steel toe caps and slip-resistant soles

When: Required when operating forklifts or working on and around trucks during deployment and mounting operations. Protects feet from crushing injuries and provides slip resistance on deployment ramps and truck platforms.

Hard Hat

Requirement: Type 1 helmet compliant with AS/NZS 1801

When: Required when operating in construction environments with overhead hazards including suspended loads, working near elevated equipment, or at sites with structural work above ground level. Must be worn throughout forklift operations at construction sites.

Work Gloves

Requirement: Leather or synthetic gloves providing grip and abrasion protection

When: Required when handling securing chains, deployment ramps, or load securing equipment. Should not be worn when operating forklift controls due to reduced sensitivity and entanglement risk.

Safety Glasses

Requirement: Impact-rated to AS/NZS 1337

When: Required when working in construction environments with dust, flying debris, or during windy conditions when handling palletised materials that may shed particles or wrapping materials.

Hearing Protection

Requirement: Class 4 or 5 earplugs or earmuffs per AS/NZS 1270

When: Required when operating forklifts in high-noise construction environments or when multiple items of plant are operating simultaneously, to prevent hearing damage from prolonged exposure.

Inspections & checks

Before work starts

  • Inspect forklift securing systems including hydraulic locks, mechanical pins, and safety chains for damage or wear that could compromise securing during transport
  • Verify battery charge level is adequate for anticipated unloading operations, with backup charging arrangements if extended operation is required
  • Check forklift tyres for adequate tread depth, damage from previous deployment/mounting operations, and proper inflation pressure
  • Test forklift operation including drive, steering, braking, and hydraulic lift and tilt functions to verify all systems operate correctly
  • Inspect deployment ramps or rails for damage, proper extension and retraction operation, and adequate securing when in transport position
  • Verify audible alarm and rotating beacon operate correctly, as these safety devices are critical for construction site operations
  • Check hydraulic system for leaks, adequate fluid levels, and proper operation of lift and tilt cylinders throughout full range of motion
  • Inspect truck mounting frame for cracks, damage, or loose fasteners that could affect forklift stability when mounted

During work

  • Monitor ground conditions during forklift operation, watching for soft areas, slopes, or uneven surfaces requiring cautious operation or relocation
  • Observe forklift stability during load handling, particularly when operating on slopes or with elevated loads, ready to lower loads if instability is observed
  • Maintain awareness of overhead clearances including power lines, structures, and tree branches throughout all elevated load movements
  • Monitor for pedestrians and site workers entering forklift operating area, using horn to alert workers and halting operations if workers do not clear exclusion zones
  • Check that loads remain stable on forks during positioning and placement, with load weight distributed evenly and secured if loads could shift
  • Verify deployment ramps remain properly positioned if multiple deployment cycles are required, checking for movement or damage between uses
  • Communicate with site supervisors if site conditions change during unloading operations, including weather deterioration or ground softening

After work

  • Clean deployment ramps of mud, debris, or spilled materials before mounting forklift, ensuring adequate traction for safe ascent
  • Verify all forklift securing mechanisms are fully engaged after mounting, physically checking that locks have engaged and safety pins are inserted
  • Conduct walk-around inspection verifying forklift is correctly positioned on mounting frame with no overhang or misalignment
  • Test that deployment ramps retract and secure properly in transport position, with locking mechanisms preventing inadvertent extension during transport
  • Document any equipment issues, site access difficulties, or near-misses in delivery records for review and follow-up
  • Inspect tyres for damage that may have occurred during site operations, particularly if operating on rough or debris-covered ground

Step-by-step work procedure

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

Field ready
1

Conduct Pre-Departure Vehicle and Forklift Inspection

Before departing for delivery operations, conduct comprehensive inspection of both the truck and mounted forklift following documented checklist procedures. Verify all forklift securing systems are engaged including hydraulic locks showing adequate pressure, mechanical securing pins fully inserted and secured with safety clips, safety chains attached and tensioned, and wheel chocks positioned correctly. Test forklift battery charge level and verify charge is adequate for anticipated number of deliveries and load cycles. Inspect forklift tyres, hydraulic system, steering, and brakes. Verify deployment ramp system is secured in transport position with locking mechanisms engaged. Check truck warning lights, mirrors, and load securing equipment. Document inspection completion on vehicle checklist. Resolve any deficiencies before departure, recognising that equipment failures at remote delivery locations create significant operational and safety challenges.

Safety considerations

Forklift detachment during road transport can cause catastrophic incidents. All securing mechanisms must be positively verified engaged, not assumed based on casual observation. Battery depletion during delivery operations may prevent safe remounting of forklifts, requiring recovery operations. Hydraulic or brake defects identified during pre-departure inspection are readily resolved at depot but become major issues if discovered at delivery locations.

2

Assess Delivery Site Conditions and Overhead Hazards

Upon arrival at delivery location, conduct site assessment before deploying the forklift. Drive around the site perimeter observing ground conditions including slopes, soft areas, uneven surfaces, and potential underground hazards indicated by service covers or recently disturbed ground. Identify overhead hazards particularly power lines, measuring or estimating clearance heights and comparing against maximum forklift mast height with typical loads. Assess site access including whether adequate space exists for truck positioning and forklift manoeuvring. Identify pedestrian activity and other plant operating on site requiring coordination. Communicate with site supervisor discussing delivery location preferences, ground conditions, timing to minimise conflicts with other site activities, and any site-specific hazards. If site assessment identifies conditions unsuitable for safe forklift operation including inadequate overhead clearance, unstable ground, or uncontrolled pedestrian movements, discuss alternatives with site supervisor and transport manager before proceeding.

Safety considerations

Site conditions at construction sites and delivery locations vary dramatically and cannot be assumed safe without specific assessment. Power line contact causes electrocution fatalities, requiring positive verification of adequate clearance. Soft ground causes tip-over incidents that might be prevented by pre-operation assessment and relocation to stable areas. Time pressure to complete deliveries must not override proper site assessment and decision-making about whether conditions allow safe operations.

3

Position Truck and Deploy Piggyback Forklift Safely

Position the truck on the most level, stable ground available with adequate clear space behind for forklift deployment. Apply park brake and verify transmission is in park. If the truck is equipped with stabilisers or outriggers, deploy these to improve stability during forklift mounting and deployment. Access deployment system controls, typically located at truck rear. Release forklift securing mechanisms in documented sequence: first release safety chains, then disengage mechanical pins, finally release hydraulic locks. Extend deployment ramps or rails fully, verifying they lock in extended position. Visually inspect deployment path ensuring ramps are correctly aligned and no obstacles obstruct the deployment route. Mount the forklift, start engine, and verify all controls operate correctly. Using extreme caution and slow controlled speed, drive the forklift backward down deployment ramps maintaining alignment with ramps throughout descent. Avoid sudden steering or speed changes during deployment. Once forklift wheels contact ground level, continue slowly until fully clear of deployment ramps. Park forklift on stable ground and conduct final pre-operation inspection of controls and safety devices.

Safety considerations

Deployment is a high-risk operation where forklifts can fall from trucks if ramps are misaligned, damaged, or if operator error occurs. Slow controlled speed is essential throughout deployment, with immediate halt if forklift veers from ramp alignment. Never rush deployment operations under time pressure as the consequences of deployment failures are severe including equipment damage and operator injuries.

4

Establish Exclusion Zones and Conduct Unloading Operations

Before commencing forklift operations, establish pedestrian exclusion zones around the work area using barriers, cones, or delineators if available. Communicate with site workers in the vicinity, explaining that forklift operations are commencing and requesting they maintain distance until unloading is complete. Verify forklift audible alarm and rotating beacon are operating. Begin unloading operations following standard forklift safe operating procedures: approach loads squarely, insert forks fully under pallets, tilt mast back slightly before lifting, raise loads only to minimum height required for ground clearance during travel, drive slowly and smoothly on uneven surfaces, position loads carefully at designated locations, and lower loads gently to avoid damage. Maintain constant awareness of ground conditions, adjusting travel routes if soft or uneven areas are encountered. Monitor overhead clearances throughout all load movements, particularly when placing loads in areas near power lines or structures. Use horn to alert workers before moving into new areas. If ground conditions deteriorate during operations due to weather or traffic, cease operations and reassess whether safe continuation is possible.

Safety considerations

Piggyback forklifts operate in uncontrolled construction environments very different from warehouse settings. Pedestrian collisions are prevented through combination of exclusion zones, communication, audible alarms, and operator vigilance. Tip-over prevention requires constant ground condition awareness and willingness to refuse operations in marginal stability conditions. Overhead power line clearance must be actively managed throughout operations, not assumed adequate based on initial assessment alone.

5

Complete Site Coordination and Delivery Documentation

Upon completion of unloading operations, conduct site walk-around verifying all loads have been placed in designated locations and that site is left in satisfactory condition. Communicate with site supervisor confirming delivery completion and discussing any issues encountered including ground conditions, access difficulties, or coordination challenges that should be noted for future deliveries. Obtain delivery documentation signatures from authorised site personnel. Document site conditions including ground stability, overhead hazards, and access constraints in delivery records, creating knowledge base for return visits and providing evidence of conditions encountered if incidents or disputes arise. If any near-miss incidents occurred including ground stability issues, close approaches to power lines, or pedestrian interactions, document these for internal reporting and review. Verify all delivery materials including packaging and securing equipment are removed from site unless site supervisor requests they remain. Brief site supervisor on plans for forklift remounting and departure to ensure site workers remain clear during these operations.

Safety considerations

Documentation of site conditions provides evidence of hazards encountered and decisions made during delivery operations, supporting incident investigation if issues arise. Near-miss reporting captures learning opportunities allowing continuous improvement of delivery procedures. Coordination with site supervisors about remounting operations prevents pedestrian access to hazardous areas during final departure phase.

6

Remount Forklift and Secure for Transport

Position the truck appropriately for forklift remounting, typically requiring similar positioning to deployment with level stable ground and clear access. Deploy deployment ramps and verify they lock in extended position. Inspect ramps for contamination including mud, oil, or debris that could cause wheel slippage during ascent, cleaning ramps if necessary. Ensure area behind truck is clear of personnel and obstacles. Drive forklift in forward direction approaching deployment ramps squarely at slow controlled speed. Maintaining precise alignment with ramps, drive up the incline onto truck platform. Use steady throttle avoiding wheel spin on ramps, but be prepared to reverse off ramps immediately if traction is lost or alignment drifts. Continue until forklift is fully positioned on mounting platform with wheels in designated positions. Apply forklift park brake and shut down engine. Engage all securing mechanisms in documented sequence: first engage hydraulic locks and verify pressure, then insert mechanical securing pins with safety clips, finally attach and tension safety chains. Physically verify each securing mechanism is fully engaged by attempting to manually move forklift. Retract deployment ramps and secure in transport position. Conduct final walk-around verification before departing delivery location.

Safety considerations

Remounting operations present similar fall and crushing risks to deployment. Contaminated ramps create traction loss hazards requiring ramp cleaning before ascent. Inadequate securing after remounting allows forklift movement or detachment during transport. Physical verification of securing mechanisms provides confirmation that cannot be achieved through visual inspection alone, ensuring all locks and pins are positively engaged before transport commences.

7

Monitor Securing During Transport and Conduct Post-Delivery Inspection

During return transport, remain aware of forklift behaviour through mirrors and sounds, monitoring for any unusual movement or impacts suggesting securing systems have loosened. If any concerns arise about forklift security during transport, stop in safe location and inspect securing systems, re-engaging or tightening as required. Upon return to depot, conduct post-delivery inspection of both truck and forklift. Inspect securing systems for wear or damage, deployment ramps for impact damage or deterioration, forklift tyres for damage from site operations, and hydraulic systems for leaks that may have developed during delivery operations. Clean mud and debris from forklift and deployment systems to prevent corrosion and maintain equipment condition. Document any equipment issues in vehicle maintenance logs, ensuring defects are scheduled for repair before next use. Place forklift on charge if battery-powered, ensuring adequate charge for subsequent delivery operations. Complete delivery documentation including recording of any incidents, near-misses, or equipment issues encountered during operations.

Safety considerations

Progressive loosening of securing systems during transport may not be apparent until catastrophic failures occur. Monitoring during transport and post-delivery inspection identifies developing issues before they cause detachment incidents. Mud and debris accelerate corrosion and wear of critical components if not removed. Documentation of equipment issues ensures systematic maintenance rather than allowing progressive deterioration to continue until failures occur during operations.

Frequently asked questions

What licensing is required to operate truck-mounted (piggyback) forklifts in Australia?

Operators require both appropriate truck driver licensing and forklift high-risk work licensing. For truck driving, licence class must match the vehicle's Gross Vehicle Mass: Light Rigid (LR) for trucks 4.5-8 tonnes, Medium Rigid (MR) for 8-15 tonnes, or Heavy Rigid (HR) for larger vehicles. For forklift operation, operators must hold current High Risk Work Licence Class LF (Forklift Truck) issued by state or territory work health and safety regulators. This licence requires successful completion of both theoretical and practical assessment by registered training organisations. The forklift licensing requirement applies regardless of the forklift being truck-mounted rather than conventional warehouse configuration. Standard forklift training does not cover truck-mounted deployment and mounting procedures, so additional operator training specific to piggyback equipment is essential. Operators should also complete general construction induction (White Card) if deliveries are to construction sites requiring site access. Employers must verify and maintain records of all operator qualifications, as chain of responsibility legislation extends liability to businesses directing transport operations if operators lack appropriate licensing. Some states require operators to carry physical licence cards that must be produced on request by work health and safety inspectors or police.

How do I assess whether ground conditions at a delivery site are adequate for safe forklift operation?

Ground assessment should evaluate three critical factors: slope angle, bearing capacity, and surface condition. Slope angle can be measured using a simple inclinometer, smartphone level app, or estimated by observing water drainage patterns. Piggyback forklifts should ideally operate on level ground, can operate cautiously on slopes up to 5 degrees, require supervisor approval and reduced load heights for 5-10 degree slopes, and should not operate on slopes exceeding 10 degrees due to severe tip-over risk. Bearing capacity assessment involves observing whether the ground surface is recently disturbed, saturated, or shows evidence of softness. Push a probe or steel stake into the ground - if it penetrates easily, bearing capacity may be inadequate for forklift weight. Watch whether forklift wheels sink when first deployed - if significant sinking occurs, relocate to firmer ground. Surface condition including loose gravel, mud, or debris affects traction and stability. The best approach is to identify the most level, stable, well-compacted area available on site and position truck to allow forklift operation in this area. If no suitable area exists, alternative unloading methods should be considered including manual handling with mechanical aids, crane offloading arranged through site, or requesting site operators use their forklifts to unload from the truck. Never proceed with forklift operations on marginal ground due to time pressure or reluctance to discuss alternatives with site supervisors - the consequences of tip-over incidents far outweigh any perceived inconvenience of arranging alternative unloading methods.

What should I do if overhead power lines are present at a delivery location?

Immediately halt deployment of the forklift until overhead clearances are assessed and verified adequate. Identify power line locations and estimate or measure the height of lines above ground. Determine the maximum height your forklift mast will reach when handling the loads to be delivered - this is typically 4-5 metres for piggyback forklifts at full mast extension. Australian electrical safety regulations require minimum clearances of 3 metres from high-voltage power lines (typically distribution lines on power poles) and varying distances from low-voltage lines depending on voltage and risk assessment, often 1 metre minimum for residential low-voltage services. However, electricity can arc from conductors to plant before actual contact occurs, particularly with high-voltage lines. If available clearance is less than 3 metres from any overhead lines, relocate unloading area away from power lines, limit mast height during load handling to maintain required clearances, or use alternative unloading methods not involving elevated loads. Do not proceed with elevated load handling near power lines based on visual estimation of clearances or assumptions that clearances are adequate. If power line contact occurs, do not exit the forklift unless fire makes remaining in the machine impossible. Instruct all personnel to remain clear of the forklift and truck. Call electricity provider emergency number immediately to isolate power. Only after positive confirmation from electricity provider that power is isolated should personnel approach the vehicle. These conservative procedures reflect the catastrophic consequences of power line contact including electrocution fatalities.

What maintenance differences exist between truck-mounted and conventional warehouse forklifts?

Truck-mounted forklifts require enhanced maintenance schedules due to harsh road transport environments. Road transport at highway speeds generates severe vibration causing accelerated wear of hydraulic connections, electrical terminals, battery connections, and structural fasteners that warehouse forklifts do not experience. Maintenance schedules should account for both forklift operating hours and road transport hours, with components susceptible to vibration inspected more frequently. Hydraulic hoses should be inspected weekly rather than monthly, with replacement at any sign of abrasion, cracking, or deterioration. Electrical connections including battery terminals require monthly inspection and cleaning to prevent corrosion from road spray exposure. All structural bolts should be torque-checked quarterly as vibration causes progressive loosening. Tyres experience additional wear from deployment and mounting processes with potential damage from impacts against deployment ramps, requiring more frequent inspection and replacement than warehouse equivalents. Battery water levels should be checked weekly as charging may be less systematic than warehouse environments with scheduled charging. The overall effect is that truck-mounted forklifts typically require service intervals 30-50% more frequent than manufacturer recommendations for warehouse forklifts with equivalent operating hours. Comprehensive service records should track both transport and operational usage, supporting predictive maintenance and identifying components requiring enhanced attention. Pre-operation inspections become particularly important as they are the primary opportunity to identify transport-related deterioration before operations commence at delivery locations where repair support is unavailable.

How should I secure loads during piggyback forklift operations on construction sites?

Load securing during piggyback forklift operations follows standard forklift principles but requires additional attention due to uneven ground conditions. Ensure forks are inserted fully under pallets or load bases with load weight evenly distributed across both forks. Tilt mast backward slightly (approximately 5-10 degrees) before lifting to angle load against the mast backrest, creating positive retention. Raise loads only to minimum height required for ground clearance during travel - typically 150-200mm above highest ground point in the travel path. Higher loads elevate the centre of gravity and increase tip-over risk, particularly on uneven construction site surfaces. For loads that are unstable, top-heavy, or inadequately packaged, additional securing may be required using load restraint straps attached to the forklift if such attachment points are provided, though this is not common on piggyback forklifts. For particularly unstable loads, consider manual repositioning or re-stacking to create more stable configurations before forklift handling. Travel at reduced speed appropriate to ground conditions, typically walking pace (5 km/h maximum) on rough or uneven surfaces. Avoid sudden braking or sharp steering that could cause load shift. Lower loads gently when positioning, using tilt function to ease loads onto the ground rather than dropping from height. If operating on slopes (which should be avoided where possible), travel with forks uphill when loaded to maintain load against the mast. After load placement, verify loads are stable and positioned safely before departing, ensuring loads are not positioned where they could fall onto workers or traffic routes. For banded or strapped pallet loads, verify packaging integrity before lifting - damaged packaging may not contain load adequately during handling.

What emergency procedures should I follow if the forklift becomes unstable during deployment or operation?

During deployment from the truck, if the forklift begins to veer off deployment ramps or shows signs of instability, immediately stop all movement by releasing the accelerator and applying brakes gently. Do not attempt sudden steering corrections that could worsen instability. If safe to do so, reverse slowly back up ramps to truck platform and reassess deployment approach. If the forklift has already begun to fall or tip from ramps, operators should remain in the operator position with seatbelt fastened if equipped (though many piggyback units lack seatbelts), holding firmly to steering wheel or operator handles, and bracing for impact. Do not attempt to jump clear as operators are frequently crushed when trying to escape tipping forklifts. After incident stabilises, assess injuries before attempting to exit the forklift, waiting for assistance if injured. During ground operations, if the forklift begins to tip due to ground collapse, slope, or overloading, operators should remain in the operator position, brace firmly against the steering wheel, and ride out the tip-over. Modern forklifts have rollover protective structures (ROPS) providing protection when operators remain in position, but operators jumping clear are frequently crushed by the machine. After tip-over incidents, isolate the area preventing others from approaching, assess operator for injuries requiring emergency services, and notify supervisors and work health and safety personnel. Do not attempt to right the tipped forklift without qualified rigging personnel and appropriate lifting equipment. For power line contact scenarios, remain in the forklift and instruct all other personnel to stay clear. Only exit if fire makes remaining in machine impossible, and if exiting is necessary, jump clear landing with both feet together, then shuffle away with small steps keeping feet together to avoid becoming a path for electrical current. These procedures must be included in operator training and reinforced through regular safety discussions to ensure operators respond correctly under stress.

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