Who Can Test Anchor Points in Australia? Competent Person Requirements

Not everyone who installs or inspects a fall arrest anchor is qualified to test one under load. This distinction matters because proof load testing and ultimate load testing place real forces on anchors, substrates, and connections, and the person conducting those tests must be able to interpret results, recognise failure indicators, and make engineering judgements about what the data means. Australian standards and WHS legislation both use the term "competent person," but the definition of competence in the context of anchor load testing is more specific than many height safety practitioners realise.

The regulatory baseline comes from the *Work Health and Safety Regulations 2011* (and state equivalents), which require that inspection and testing of fall arrest systems be carried out by a competent person. Under that framework, a competent person has the skills, knowledge, and experience to carry out the task safely and correctly. For routine visual inspection of a fall arrest system, that threshold is achievable through height safety training and documented site experience. For proof load testing to the requirements of AS/NZS 1891.4:2025 or anchor verification testing under AS 5532:2025, the threshold is considerably higher.

The practical consequence is that a height safety inspector holding a Working at Heights ticket and a fall protection inspection certificate is not automatically qualified to conduct proof load tests. That person may be entirely competent to inspect harnesses, lanyards, connecting hardware, and the visual condition of anchor hardware, but applying calibrated hydraulic loads, interpreting load-displacement curves, and certifying anchor integrity against a structural standard requires a different set of qualifications and equipment.

What Australian Standards Actually Require

AS/NZS 1891.4:2025, which governs the selection, use, and maintenance of industrial fall arrest systems, references competent person requirements throughout. For system inspection and testing, the standard draws a distinction between routine inspection (which can be conducted by a trained installer or inspector) and load testing (which requires additional technical competency in test methods and equipment operation).

AS 5532:2025, the standard covering the manufacture and testing of anchors used in height safety systems, sets out specific requirements for proof load testing including the test forces to be applied, the displacement limits to be observed, and the criteria for passing or failing a test. Complying with that standard requires the tester to understand structural load transfer, substrate mechanics, and what constitutes an acceptable displacement reading versus a warning sign. The standard does not issue a tick-box qualification, but it implies a level of technical knowledge that cannot be obtained purely through height safety trade training.

AEFAC Technical Note TN05, published by the Anchor and Edge Fall Arrest Council of Australia, provides further guidance on who should be conducting anchor testing and what that person should be able to demonstrate. TN05 is not a legislative document, but it is widely referenced by engineers and compliance auditors as industry best practice for defining competency in this space.

The Competent Person: Minimum Requirements for Load Testing

Defining a competent person for anchor proof load testing involves several distinct criteria that should each be evidenced in writing before a test programme commences.

• Formal training in anchor testing methods:: This goes beyond height safety installation training and should include specific instruction in hydraulic test rig operation, load application rates, displacement measurement, and interpretation of test results against AS 5532:2025 criteria.
• Working knowledge of relevant standards:: The tester should be able to identify which standard applies to a given anchor type, what proof load is required (commonly 6 kN, 12 kN, or 15 kN depending on the anchor rating and system configuration), and what the displacement tolerance is for a passing result.
• Substrate and anchor mechanics knowledge:: Understanding how a sleeve anchor behaves differently from a chemical capsule in cracked concrete, how hollowcore plank geometry affects load distribution, and how masonry substrate condition changes expected pull-out capacity is not optional. These factors directly affect how test results are interpreted.
• Calibrated test equipment:: The hydraulic rig, load cell, and displacement gauges used to apply and record test loads must be calibrated to a traceable standard. Calibration certificates should be current and available for inspection. Equipment that has not been recently calibrated cannot produce results that will withstand engineering or legal scrutiny.
• Professional indemnity and public liability insurance:: Any person or organisation conducting structural load tests on anchor systems that are relied upon to arrest falls should carry current professional indemnity insurance appropriate to the scope of work.
• Documentation capability:: The competent person must be able to produce a test report that records the anchor location, substrate type, anchor type and size, applied load, displacement readings, pass or fail outcome, and the basis for that determination. A handwritten checklist is not adequate for compliance purposes.

Why Height Safety Inspectors Are Not Automatically Qualified

The height safety industry in Australia is regulated through a combination of WHS legislation, licensing requirements in some states, and industry training frameworks delivered through registered training organisations. A Working at Heights unit of competency covers the use of personal protective equipment and anchored systems. Installer training covers the correct placement and fixing of anchor hardware to manufacturer specifications. Inspection training covers the visual and tactile assessment of anchor hardware, substrate condition, and system components.

None of those training pathways, on their own, cover the operation of hydraulic load testing equipment, the mechanics of anchor-substrate load transfer under test conditions, or the engineering judgements required to interpret displacement data. A person can complete all available height safety training and still lack the knowledge to conduct a valid proof load test.

This matters for building owners and facilities managers who are commissioning anchor testing as part of their compliance programme. Engaging a height safety company to conduct proof load tests without confirming that their personnel meet the competent person threshold creates a compliance gap. If an anchor fails during a subsequent fall event and the proof load test records do not stand up to scrutiny, the PCBU responsible for the workplace may face serious liability exposure under WHS legislation.

The safest position is to require that anyone conducting proof load testing can demonstrate specific anchor testing training, current calibrated equipment, and professional indemnity insurance before work commences.

Equipment Calibration: A Non-Negotiable Requirement

Test results are only as reliable as the equipment used to produce them. In anchor load testing, the critical instruments are the hydraulic pump and cylinder (which applies the load), the load cell (which measures the actual force), and the displacement gauge or digital transducer (which records anchor movement under load).

Each of these instruments drifts over time and with use. A load cell that reads accurately at 12 kN when new may read 10.8 kN after two years of field use without calibration. If that drift is not identified and corrected, every test conducted with that equipment produces results that cannot be relied upon. The tester may declare a 12 kN proof load has been successfully applied when the actual load delivered was materially less.

Calibration should be conducted annually at minimum, and after any event that could affect instrument accuracy, including drops, overloads, or significant temperature exposure. Calibration should be carried out against a reference standard traceable to NATA-accredited measurement. Calibration certificates should include the instrument serial number, calibration date, calibration interval, and the name and accreditation details of the calibrating laboratory.

When requesting a quote for anchor testing services, ask specifically for copies of current calibration certificates for all instruments that will be used on your project. A reputable testing organisation will provide these without hesitation. Hesitation or inability to provide calibration records is a clear indicator that the test results they produce will not be defensible.

Insurance Requirements for Anchor Testing

Proof load testing and ultimate load testing are activities that carry structural risk. When a test load is applied to an anchor, there is a possibility that the anchor or the surrounding substrate will fail. Spalling concrete, ejected fasteners, and sudden load release are all real failure modes that occur during testing. The tester must be positioned and equipped to manage those risks, and must carry insurance appropriate to the activity.

Professional indemnity insurance covers the tester's liability for errors in judgement, incorrect test methodology, or misinterpretation of results. Public liability insurance covers third-party property damage and personal injury arising from the testing activity. Both are required. The appropriate limits will depend on the scope and value of the project, but professional indemnity cover of at least $2 million and public liability of at least $10 million are standard minimum benchmarks for commercial anchor testing work in Australia.

Building owners and strata committees should request certificates of currency for both covers before allowing any testing organisation onto site. If a tester cannot provide current insurance certificates, they should not be permitted to conduct load tests on the building.

The Role of Structural Engineers in Anchor Testing Programmes

For more complex anchor testing scenarios, including anchors embedded in precast panels, anchors in post-tensioned slabs, or testing programmes where the underlying substrate condition is uncertain, a structural engineer should be involved in the test programme design and result interpretation. This is not always required for routine proof load testing of standard fall arrest anchors in sound reinforced concrete, but there are situations where the engineering context around a test matters as much as the test results themselves.

A structural engineer can assess whether a proposed test load is appropriate for the substrate, interpret anomalous displacement results, and provide written advice on anchor capacity where the test results alone do not resolve a compliance question. Some jurisdictions and some building types will require a structural engineer to sign off on the test programme and outcomes as a condition of compliance certification.

At Anchor Testing Australia, our testing programmes are developed with structural engineering input and our field testers operate to written test procedures that have been reviewed against current Australian Standards. Our equipment calibration records are maintained and available, and we carry the professional indemnity and public liability insurance appropriate to commercial and industrial anchor testing work. You can find out more about our [anchor proof load testing services](/services/proof-load-testing) and [fall arrest anchor testing](/services/fall-arrest-anchor-testing) on our website.

Asking the Right Questions Before You Engage a Tester

Before engaging any organisation or individual to conduct anchor load testing on your building or facility, ask for written evidence of the following:

• Training records: specific to anchor load testing methods and relevant Australian Standards
• Current calibration certificates: for all test equipment to be used on the project
• Professional indemnity insurance certificate of currency: with cover of at least $2 million
• Public liability insurance certificate of currency: with cover of at least $10 million
• Sample test report: so you can assess whether their documentation standard will meet compliance and audit requirements
• Reference to the applicable standard: under which the testing will be conducted (AS 5532:2025 or AS/NZS 1891.4:2025 as appropriate)

A competent testing organisation will answer all of these questions readily. If there is uncertainty about any of them, that uncertainty should be resolved before testing commences, not after.

Conclusion

The question of who can test anchor points in Australia has a clear answer in principle and a more complicated answer in practice. In principle, a competent person with specific training, calibrated equipment, and appropriate insurance. In practice, the height safety industry contains many capable inspectors and installers who are not trained or equipped for proof load testing, and the gap between those two functions is not always visible to the building owners and facilities managers commissioning the work. Closing that gap starts with asking specific questions about training, equipment, and insurance before engaging a testing provider, and not accepting generic height safety credentials as sufficient evidence of anchor testing competency.