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General Concreting Pouring and Footings Risk Assessment

General Concreting Pouring and Footings Risk Assessment

  • • 100% Compliant with Australian WHS Acts & Regulations
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General Concreting Pouring and Footings Risk Assessment

Product Overview

Identify and control organisational risks associated with General Concreting Pouring and Footings through a structured, management-level WHS Risk Management approach that focuses on planning, governance, plant, and systems of work. This Risk Assessment supports compliance with the WHS Act, strengthens Due Diligence for officers, and helps protect your business from operational and legal liability.

Risk Categories & Hazards Covered

This document assesses risks and outlines management controls for:

  • WHS Governance, Roles & Consultation: Assessment of leadership responsibilities, officer due diligence, consultation with workers and contractors, and integration of concreting risks into the broader WHS management system.
  • Design & Structural Adequacy of Footings and Slabs: Management of engineering design verification, certification processes, design change control, and coordination between designers, engineers, and site management.
  • Planning, Programming & Pour Management: Assessment of pour sequencing, crew resourcing, time constraints, interface with other trades, and contingency planning for delays or changes in scope.
  • Ground Conditions, Excavations & Slab Preparation Systems: Management of geotechnical information, excavation stability, formwork and reinforcement preparation, and verification checks prior to pour.
  • Concreting Plant, Equipment & Maintenance Systems: Assessment of selection, inspection and maintenance of pumps, vibrators, mixers, trowelling machines and associated plant, including pre-start checks and defect reporting systems.
  • Material Specification, Handling & Storage: Management of cement, aggregates, admixtures and reinforcement specifications, storage conditions, delivery logistics, and controls for dust, spills and contamination.
  • Chemical & Health Exposure Control for Cement and Lime: Assessment of exposure to cement dust, wet concrete, lime and admixtures, including PPE programs, health monitoring considerations and safe handling protocols.
  • Manual Handling, Ergonomics & Work Organisation: Management of lifting, pushing, pulling and repetitive tasks associated with screeding, placing, tying steel and formwork, including task rotation and ergonomic work design.
  • Weather, Environmental & Curing Management: Assessment of hot, cold and wet weather impacts on safety and quality, curing management plans, wind and UV exposure, and environmental protection measures (run-off, washout, noise).
  • Traffic, Mobile Plant & Site Access Around Concreting Areas: Management of concrete truck movements, pump set-up zones, exclusion zones, spotters, and interaction between workers, public, and mobile plant.
  • Training, Competency, Induction & Supervision: Assessment of competency requirements for pump operators, plant operators and leading hands, site-specific induction content, and supervision levels for high-risk pours.
  • Safe Work Documentation, SWMS Integration & Change Management: Protocols for linking this Risk Assessment with SWMS, permits, ITPs and quality records, including version control and managing changes to methods or conditions.
  • Emergency Preparedness, Incident Response & First Aid: Management of emergency planning for concrete burns, entrapment, plant incidents and structural instability, including first aid provisions and communication procedures.
  • Fatigue, Work Hours & Psychosocial Risks: Assessment of extended pour durations, shift planning, workload pressures, supervision quality, and psychosocial hazards such as time pressure and conflict between trades.
  • Housekeeping, Post-Pour Clean-Up & Waste Management: Management of slurry, washout areas, waste concrete, formwork removal, and maintaining safe access/egress before, during and after pours.

Who is this for?

This Risk Assessment is designed for Business Owners, Construction Managers, Site Managers and Safety Professionals responsible for planning, overseeing and auditing General Concreting Pouring and Footings operations across projects.

Hazards & Risks Covered

Hazard Risk Description
1. WHS Governance, Roles and Consultation for Concreting Works
  • • Lack of clearly defined WHS responsibilities for concreting activities under WHS Act 2011 (PCBUs, officers, workers, subcontractors)
  • • Inadequate consultation with workers and Health and Safety Representatives about concreting risks and control measures
  • • Poor integration of concreting risk management into overall project WHS management plan
  • • No formal process to review and approve concreting methodologies (e.g. slab on ground, footing pours, fibre‑reinforced concrete) before work starts
  • • Insufficient oversight of high‑risk construction work obligations (e.g. work near excavations, plant movement, formwork and temporary works)
  • • Failure to coordinate WHS responsibilities between principal contractor, concrete supplier, pump operator, steel fixers and finishing crews
  • • No documented escalation pathway for WHS concerns identified during concrete pours (e.g. unsafe weather conditions, plant defects, rushed pours)
2. Design, Engineering and Structural Adequacy of Footings and Slabs
  • • Inadequate engineering design of foundations, footings, slabs on ground and paths for soil conditions and loadings
  • • Poor communication of design intent to site (misinterpretation of reinforcement details, footing dimensions, concrete strength, fibre content)
  • • Lack of verification that temporary works (formwork, edge boards, bracing) are designed for concrete pressures and pour sequences
  • • Inadequate consideration of construction joints, pour breaks, and sequencing leading to cold joints and structural weaknesses
  • • No formal design review for non‑standard solutions (e.g. fibre‑reinforced concrete casting, complex ground slab construction)
  • • Failure to address environmental and ground conditions (e.g. reactive soils, groundwater, frost, subsidence) in design documentation
  • • Insufficient engineering input into cold weather and hot weather concreting practices, leading to reduced long‑term performance
3. Planning, Programming and Pour Management
  • • Inadequate planning for pour durations, crew size and staging leading to rushed or uncontrolled concrete placement and finishing
  • • Poor coordination of concrete supply, pump availability, reinforcing installation and inspections
  • • Failure to assess weather forecasts and environmental conditions (hot/cold/wet/windy) for their impact on pour quality and safety
  • • No contingency planning for interruptions (pump breakdown, traffic delays, sudden weather changes)
  • • Inadequate time allocation for slab preparation, mould preparation and pre‑pour checks prior to concrete truck arrival
  • • Insufficient planning for after‑pour tasks such as blanket laying over freshly placed concrete and site cleaning after pouring
  • • Lack of consideration for access and egress routes for concrete trucks, pump booms, and workers during busy pour periods
4. Ground Conditions, Excavations and Slab Preparation Systems
  • • Inadequate geotechnical assessment or undocumented assumptions about soil bearing capacity for foundations and slabs on ground
  • • Uncontrolled excavations for footings leading to wall collapse, undermining of adjacent structures or services damage
  • • Poorly managed slab on ground prep work (insufficient compaction, uneven subgrade, ponding water) affecting stability and worker footing
  • • No systematic verification of underground services before excavation or footing placement
  • • Lack of procedure for managing contaminated soils or unexpected ground conditions (e.g. soft spots, groundwater ingress)
  • • Inadequate drainage planning causing standing water in excavations or on slab prep areas
  • • Failure to control access around open footings and trenches (falls into excavations, plant entering edges)
5. Concreting Plant, Equipment and Maintenance Systems
  • • Inadequate maintenance and inspection of concrete pumps, mixers, vibrators and compactors leading to mechanical failure or uncontrolled movement
  • • Use of unsuitable or uncertified plant for pumping, placing or vibrating wet concrete
  • • Lack of standardised pre‑start checks for concrete trucks, pumps and portable mixers used for pouring concrete from a mixer or manually mixing cement and sand
  • • Failure to implement guarding and lock‑out systems for moving parts on mixers and vibrators
  • • Poorly controlled power supplies and leads to vibrators and other equipment (trip, electrocution and fire hazards)
  • • No system to verify that hired or subcontractor plant meets site WHS and maintenance requirements
  • • Inadequate procedures for removing blocked lines, cleaning hoppers or dealing with pump pressure issues
6. Material Specification, Handling and Storage (Cement, Aggregates, Admixtures)
  • • Incorrect concrete mix specification or delivery (wrong strength, slump, admixture content, fibre dosage) due to poor communication or ordering systems
  • • Unsafe handling of raw materials such as cement, water, aggregates and admixtures leading to dust inhalation, skin and eye contact burns, and manual handling injuries
  • • Exposure to hydrated lime and other alkaline constituents in cement products without adequate controls
  • • Inadequate storage of bagged cement, hydrated lime and additives causing spills, deterioration, or water ingress
  • • Lack of segregation between incompatible substances and poor labelling of additives and surface treatments
  • • No procedure for managing rejected or returned concrete, wash‑out water and residual raw materials
  • • Use of non‑conforming materials (e.g. contaminated aggregates, expired admixtures) due to insufficient quality controls
7. Chemical and Health Exposure Control for Cement and Lime
  • • Chronic exposure to cement and hydrated lime dust leading to respiratory conditions and skin sensitisation
  • • Acute eye and skin burns from wet concrete, grout, and lime‑containing mixes during placement and finishing
  • • Lack of systems to manage prolonged contact with wet concrete on legs, hands and feet during engaging in concreting and vibrating of wet concrete
  • • Inadequate training on the health effects of cementitious products, including alkali burns and dermatitis
  • • Failure to control exposure during cutting, grinding or breaking existing concrete surfaces adjacent to pours
  • • Improper storage and use of chemical curing compounds, release agents and sealers creating inhalation and fire hazards
8. Manual Handling, Ergonomics and Work Organisation in Concreting
  • • Poorly planned manual handling of formwork, mesh, bar chairs, edge boards and screeds during slab preparation and laying of concrete floor slabs
  • • Excessive pushing, pulling and bending during concrete placement and finishing, particularly for large slabs and paths
  • • Inadequate systems to limit repetitive or sustained postures when vibrating wet concrete or hand‑finishing edges and rebates
  • • Lack of mechanical aids or poor layout resulting in long carry distances for bagged cement, sand and aggregate during manually mixing cement and sand
  • • Insufficient job rotation, breaks and crew size leading to fatigue and musculoskeletal disorders
  • • Design of work not considering access constraints around footings, ground slabs and paths
9. Weather, Environment and Curing Management (Hot/Cold/Wet Conditions)
  • • Failure to adjust work practices for hot weather concreting practices leading to rapid setting, cracking, reduced strength and heat stress
  • • Inadequate controls for cold weather concreting practices causing delayed setting, frost damage, and compromised structural performance
  • • Poor curing management, including lack of blanket laying over freshly placed concrete or insufficient curing compounds leading to shrinkage and surface defects
  • • Unmanaged rain and wind events during pours causing wash‑out, laitance formation and unsafe slippery surfaces
  • • Lack of heat and cold stress management systems for workers placing, vibrating and finishing concrete in extreme temperatures
  • • Improper management of run‑off from wash‑out, slurry and cleaning the site after pouring concrete leading to environmental contamination
10. Traffic, Mobile Plant and Site Access Around Concreting Areas
  • • Uncontrolled interaction between concrete trucks, pumps, excavators and pedestrians during slab and footing pouring
  • • Inadequate traffic management for narrow residential streets or confined sites when concreting for paths and driveways
  • • Poor management of reversing vehicles and swing radius of pump booms near workers and public areas
  • • Insufficient planning for emergency access during large pours when access routes are blocked by vehicles and hoses
  • • No formal controls for plant stability when setting up pumps or placing plant near excavations and soft ground
  • • Lack of clear delineation between active pour zones, curing areas and general site traffic routes
11. Training, Competency, Induction and Supervision in Concreting
  • • Insufficient competency of workers and supervisors in general concreting methods, including ground slab construction, pouring foundation footings and slab on ground prep work
  • • Lack of formal training and verification for specific tasks such as vibrating wet concrete, fibre‑reinforced concrete casting and preparation of moulds
  • • Inadequate inductions covering concreting‑specific hazards (cement burns, formwork collapse, pump line hazards, hot and cold weather practices)
  • • Reliance on undocumented on‑the‑job learning without assessment of skills and knowledge
  • • Supervision levels not matched to risk, especially for new workers and complex pours
  • • No structured refresher training or lessons‑learned process after incidents or near‑misses
12. Safe Work Documentation, SWMS Integration and Change Management
  • • Fragmented or incomplete WHS documentation for concreting activities, leading to inconsistent risk controls
  • • Failure to integrate this high‑level risk assessment with task‑specific SWMS for pouring, finishing, vibrating and cleaning the site after pouring concrete
  • • Outdated SWMS and procedures not reflecting current design, plant or methods (e.g. adoption of fibre‑reinforced mixes, new curing compounds)
  • • No formal process for managing changes during pours (sequence changes, late design amendments, plant substitutions)
  • • Workers not understanding documented procedures due to language or literacy barriers
  • • Lack of verification that documented control measures are implemented in the field
13. Emergency Preparedness, Incident Response and First Aid for Concreting
  • • Lack of specific emergency procedures for concreting incidents such as formwork failure, pump line rupture or person entrapped in wet concrete
  • • Inadequate provision for first aid treatment of cement and hydrated lime burns, eye splashes and inhalation exposures
  • • Poor planning for rescue from excavations and footing trenches in the event of wall collapse or worker fall
  • • No rehearsed response to major concrete spills, pump failures or environmental releases of slurry and wash‑out water
  • • Delayed emergency response due to blocked access routes or unclear site address and entry instructions
  • • Under‑reporting of minor concreting incidents and near‑misses, limiting opportunities for system improvement
14. Fatigue, Work Hours and Psychosocial Risk in Concreting Operations
  • • Extended work hours during large or time‑critical pours leading to fatigue‑related errors and incidents
  • • Pressure to complete pours quickly due to concrete setting times causing rushed decisions and risk‑taking behaviour
  • • Inadequate planning for breaks and shift handovers during night pours or extreme weather rescheduling
  • • Poor communication and conflict between contractors (pump operators, concrete suppliers, finishing crews) under schedule pressure
  • • Insufficient systems for workers to raise psychosocial concerns (stress, bullying, unrealistic timeframes) relating to concreting works
15. Housekeeping, Post‑Pour Clean‑Up and Waste Management
  • • Poor housekeeping during and after pours leading to slips, trips and falls on concrete residues, offcuts, hoses and tools
  • • Uncontrolled concrete wash‑out and equipment cleaning activities contaminating soil and waterways
  • • Inadequate systems for removal and disposal of surplus concrete, damaged formwork and curing materials
  • • Residual protruding steel, stakes or formwork after pouring concrete footings and slabs creating impalement and trip hazards
  • • No formal allocation of responsibility for cleaning the site after pouring concrete and returning it to safe condition for subsequent trades
16. Exclusions, Misuse of Materials and Non‑Work Activities
  • • Improper or ad hoc use of cementitious products for non‑construction activities (e.g. so‑called cooking with cement or other unsafe experimentation) on or associated with the workplace
  • • Lack of clarity that cement and concrete products are industrial materials not to be used for personal or recreational purposes at work
  • • Potential ingestion, inhalation or skin exposure from inappropriate handling of cement outside controlled work tasks
  • • Reputational and legal risk to PCBU where workers engage in unsafe or non‑compliant use of cement products on site

Need to add specific hazards for your workplace?

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Legislation & References

This document was researched and developed to align with:

  • Work Health and Safety Act 2011
  • Work Health and Safety Regulations 2017
  • Model Code of Practice – Construction Work: Guidance on managing WHS risks in construction, including concreting activities.
  • Model Code of Practice – How to Manage Work Health and Safety Risks: Framework for identifying hazards, assessing and controlling risks.
  • Model Code of Practice – Managing the Risk of Falls at Workplaces: Requirements for controlling fall risks around excavations, decks and formwork.
  • Model Code of Practice – Managing Risks of Plant in the Workplace: Guidance on the safe use and maintenance of concreting plant and equipment.
  • Model Code of Practice – Hazardous Chemicals: Requirements for managing health risks from cement, lime and admixtures.
  • AS/NZS ISO 31000:2018: Risk management — Guidelines
  • AS 3600 – Concrete Structures: Design and construction requirements for concrete structures and structural elements.
  • AS 3610 – Formwork for Concrete: Requirements for the design, construction and stripping of formwork.
  • AS 1379 – Specification and Supply of Concrete: Requirements for the production, supply and conformity of concrete.
  • AS 2159 – Piling – Design and Installation: Relevant where footings interface with piling systems.
  • AS/NZS 45001:2018: Occupational health and safety management systems – Requirements with guidance for use.
Standard Risk Assessment Features (Click to Expand)
  • Comprehensive hazard identification for all activities
  • Risk rating matrix with likelihood and consequence analysis
  • Existing control measures evaluation
  • Residual risk assessment after controls
  • Hierarchy of controls recommendations
  • Action priority rankings
  • Review and monitoring requirements
  • Consultation and communication records
  • Legal compliance references
  • Sign-off and approval sections

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