Product Overview

Summary: This Load Bearing Testing Safe Operating Procedure provides a clear, step-by-step method for safely testing the structural capacity of slabs, beams, floors, racking, lifting equipment and other load-bearing assets. It helps Australian businesses verify that critical structures and equipment can safely support their intended loads while meeting WHS and engineering compliance requirements.

Load bearing testing is a high‑risk activity that directly affects the structural integrity of buildings, civil works, storage systems and lifting equipment. When conducted without a robust procedure, it can introduce serious hazards including structural collapse, dropped loads, equipment failure and uncontrolled movement. This Load Bearing Testing Safe Operating Procedure sets out a disciplined, engineering‑led approach to planning, conducting and documenting load tests in line with Australian WHS duties and relevant technical standards. It defines how to assess the test environment, select and calibrate test equipment, establish exclusion zones, apply loads in controlled increments, and respond to any signs of distress or failure.

For Australian organisations responsible for structures, plant and critical infrastructure, this SOP provides a defensible framework that links engineering judgement with practical site controls. It addresses common gaps such as inconsistent test methods, poor communication between engineers and site crews, and inadequate record‑keeping that can undermine compliance and asset assurance. By implementing this procedure, businesses can demonstrate due diligence, support safe design and ongoing verification of assets, and reduce the risk of catastrophic failures, costly rework, and regulator scrutiny.

The SOP is suitable for use across construction projects, building refurbishments, warehouse fit‑outs, civil works, and routine verification of lifting beams, davits, platforms and storage racking. It is written in plain, operational language so that site teams, engineers and WHS personnel share a common understanding of how load tests will be planned, controlled, witnessed and signed off.

Key Benefits

• Ensure load tests are conducted in a controlled, staged manner that protects workers, contractors and the public from structural failure.
• Demonstrate compliance with Australian WHS legislation and relevant engineering standards through consistent, documented testing methods.
• Reduce the likelihood of catastrophic collapse, dropped loads and secondary damage to adjacent structures, plant and equipment.
• Standardise communication between engineers, site supervisors and testing technicians, minimising misunderstandings and unsafe shortcuts.
• Strengthen asset assurance by providing clear evidence that structures, platforms and lifting equipment can safely support their design loads.

Who is this for?

• Structural Engineers
• Project Engineers
• Construction Site Supervisors
• WHS Managers
• Facilities Managers
• Maintenance Supervisors
• Civil Construction Forepersons
• Warehouse and Logistics Managers
• Asset and Infrastructure Managers
• Testing and Inspection Technicians

Hazards Addressed

• Structural collapse or partial failure during load application
• Falling objects and dropped loads from test rigs, cranes or lifting equipment
• Uncontrolled movement or instability of test loads (water weights, concrete blocks, pallets, etc.)
• Failure of temporary propping, shoring or test frames
• Crush injuries and entrapment within or near the load test area
• Slips, trips and falls around test setups, hoses, cables and reaction frames
• Noise and vibration exposure from hydraulic equipment and stressing operations
• Manual handling injuries from positioning test weights and equipment
• Electrical hazards from powered testing equipment and data acquisition systems
• Exposure to weather conditions that may affect test safety (wind, rain, heat)

Included Sections

• 1.0 Purpose and Scope
• 2.0 Definitions and Terminology (Load Types, Factors of Safety, Proof Load, Ultimate Load)
• 3.0 Roles, Responsibilities and Competency Requirements
• 4.0 Applicable Legislation, Standards and Reference Documents
• 5.0 Pre-Test Planning and Risk Assessment
• 6.0 Engineering Design, Load Cases and Test Acceptance Criteria
• 7.0 Test Area Preparation and Exclusion Zones
• 8.0 Required Plant, Equipment and Calibration Requirements
• 9.0 Personal Protective Equipment (PPE) Requirements
• 10.0 Step-by-Step Load Bearing Test Procedure
• 11.0 Monitoring, Data Recording and Inspection During Testing
• 12.0 Criteria for Test Suspension, Abortion and Emergency Response
• 13.0 Post-Test Inspection, Demobilisation and Site Restoration
• 14.0 Documentation, Test Certificates and Record Keeping
• 15.0 Communication, Briefings and Permit-to-Work Integration
• 16.0 Training, Competency and Authorisation of Personnel
• 17.0 Review, Continuous Improvement and Re-Test Triggers

Legislation & References

• Work Health and Safety Act 2011 (Cth) and equivalent state and territory WHS Acts
• Work Health and Safety Regulations 2011 and equivalent state and territory WHS Regulations
• Safe Work Australia – Code of Practice: Managing the Risk of Falls at Workplaces
• Safe Work Australia – Code of Practice: Managing Risks of Plant in the Workplace
• AS 1170 series: Structural design actions
• AS 4100: Steel structures
• AS 3600: Concrete structures
• AS/NZS 4994 series: Temporary edge protection and working platforms
• AS 2550 series: Cranes, hoists and winches – Safe use
• AS 1418 series: Cranes, hoists and winches – Design and construction
• AS 4084: Steel storage racking
• AS/NZS ISO 31000: Risk management – Guidelines
• AS/NZS 1891 series: Industrial fall-arrest systems and devices