A harness may look serviceable while its webbing has been weakened by chemical exposure, heat, ultraviolet degradation or an earlier loading event. That is why fall arrest equipment inspection cannot be reduced to a quick visual check before a shift. In marine, offshore, drilling, power-generation and industrial maintenance environments, it is a controlled process that confirms a complete protection system remains fit for use.

For operations teams, the objective is straightforward: prevent a fall from becoming a fatality, while avoiding avoidable delays caused by quarantined or unavailable equipment. Achieving both depends on suitable specification, disciplined user checks, competent formal inspection and records that can be retrieved when they are needed.

Why fall arrest equipment inspection needs a system view

A fall-arrest system is only as reliable as its weakest compatible component. The harness, lanyard or self-retracting lifeline, connectors, anchor device and anchorage arrangement must work together as an approved system. Inspecting one item in isolation can miss an incompatible connector, an incorrect routing arrangement or an anchorage that has been altered since the job was planned.

This matters particularly where equipment moves between work fronts, vessels, shutdown teams or contractors. Tags may remain in place, but the circumstances of use can change quickly. Salt spray, welding spatter, drilling fluids, abrasive dust and confined storage conditions all accelerate deterioration in ways that may not be visible from a distance.

A sound programme therefore separates three activities. The user performs a pre-use check before each use. A competent person undertakes a documented periodic examination at the interval required by the manufacturer, site rules and applicable regulations. The organisation also carries out an exceptional inspection after a fall, suspected shock load, chemical contamination, heat exposure or any event that could have affected performance.

If there is doubt, the equipment should be removed from service. A replacement is less costly than a decision made on assumption.

The checks that should happen before work starts

Pre-use inspections should be practical enough to be completed properly at the point of work. They are not a substitute for formal examination, but they are the first opportunity to identify recent damage or misuse.

The wearer should inspect the harness webbing along its full length, including areas hidden by pads, labels and adjustment buckles. Look for cuts, fraying, abrasion, glazing, stiffness, discolouration, chemical staining, mould or damaged stitching. Labels must be legible because they identify the model, serial number, date information and manufacturer instructions needed to confirm the item is within its permitted service life.

Hardware deserves equal attention. D-rings, buckles, adjusters, karabiners and hooks should be free from cracks, corrosion, sharp edges, deformation and excessive wear. Moving gates and locking mechanisms must close and lock correctly. A connector that feels stiff, fails to self-close or has been forced into position is not acceptable for use.

For lanyards and energy absorbers, check the webbing or rope, protective covers, stitching and attachment points. An energy absorber that has deployed, shows extension or has a torn cover must be withdrawn. On self-retracting lifelines, inspect the housing, lifeline, hook, brake function and retraction. The line should extend and retract smoothly, and the braking function should be tested only in line with the manufacturer’s instructions.

The anchor point and connection arrangement must also be checked against the task plan. A certified anchor can still be unsuitable if the worker’s position creates a swing-fall hazard, insufficient clearance exists below, or the selected lanyard is the wrong length for the work area.

What a competent formal inspection should establish

Formal inspection requires more than familiarity with harnesses. The competent person needs training, practical product knowledge, access to the manufacturer’s instructions and authority to condemn equipment. They must understand how the equipment is used on site, including foreseeable damage mechanisms and the limitations of each device.

The examination should confirm identity and traceability, service-life status, condition, functionality and compatibility. It should assess the entire assembly where it is issued or used as an assembly, rather than treating components as unrelated stock items. Particular care is required where different brands or product generations have been mixed. Components that physically connect are not automatically approved to operate together.

Inspection intervals are not one-size-fits-all. Manufacturer requirements are the starting point, while the duty holder must also consider the intensity of use, environmental conditions, storage, incident history and local legal obligations. Equipment used daily in corrosive offshore conditions may warrant closer control than equipment kept for occasional rescue use in a clean, managed store. The relevant regulatory framework and recognised standards, including BS EN requirements where applicable, should be reflected in the site procedure.

A formal inspection record should identify the equipment, its owner or location, examination date, findings, action taken, next due date and the competent person who completed the check. Digital registers can improve visibility across multiple sites, but only if serial numbers, inspection outcomes and quarantine status are entered accurately. A spreadsheet or asset system is useful; it is not evidence of safety unless it reflects the actual condition and location of the item.

Defects that require immediate quarantine

Workers should be clear about the conditions that trigger withdrawal from service. The following defects should not be deferred until the next scheduled inspection:

• evidence of a fall arrest, shock loading or deployed energy absorber;
• cuts, severe abrasion, heat damage, chemical attack or damaged load-bearing stitching;
• corrosion, distortion, cracks or malfunctioning gates, hooks, buckles or retractable devices;
• missing or illegible labels, serial numbers, inspection markings or manufacturer information; and
• equipment that is out of inspection date, has an unknown history or has been modified without written approval.

Quarantine must be physical as well as administrative. Place the equipment in a designated, clearly marked area so it cannot return to circulation by mistake. It should then be assessed by an authorised competent person, returned to the manufacturer where appropriate, or destroyed in accordance with the organisation’s procedure. Cutting up condemned textile equipment is often necessary to prevent accidental reuse, but only after records and any incident investigation requirements have been satisfied.

Storage, transport and procurement affect inspection results

Many recurring inspection failures begin long before a worker puts on a harness. Equipment left on deck, thrown into a vehicle box, stored beside chemicals or hung from sharp steelwork will deteriorate faster than equipment kept clean, dry, protected from direct sunlight and segregated from contaminants.

The same principle applies to procurement. Selecting approved products with clear technical documentation, predictable spare and replacement support, and appropriate certification makes inspection easier to manage over the equipment lifecycle. Procurement teams should avoid treating fall-protection equipment as a generic commodity. The price difference between two lanyards can reflect different environmental suitability, connector configuration, service-life controls and manufacturer support.

For larger projects, a controlled equipment register should be established before mobilisation. It should allocate unique identification, inspection dates, storage responsibility, issue arrangements and replacement quantities. This reduces the common problem of discovering overdue harnesses or unavailable retractable lifelines during a shutdown or vessel turnaround.

SFRM supports project teams by sourcing safety equipment around the operational requirement, helping align approved product selection, technical information and supply coordination. For high-risk work, the value lies in obtaining the right equipment and maintaining confidence that it can be inspected, replaced and supported throughout the job.

Make inspection part of work planning

Fall protection should be considered when the work method is written, not when the crew reaches the access point. The plan needs to account for anchor selection, fall clearance, rescue provision, environmental exposure, equipment compatibility and inspection status. Rescue equipment requires the same level of control as the fall-arrest equipment itself. A recovery plan based on borrowing uninspected equipment is not a credible plan.

Supervisors should encourage early reporting of damage without blame. A worker who reports a contaminated lanyard or a dropped retractable device has protected the next person who might have used it. That reporting culture, backed by available replacement stock and responsive technical support, is what turns inspection from a compliance exercise into reliable operational control.

The most useful inspection record is the one that prompts action before work begins: equipment correctly identified, condition confirmed, defects isolated and replacements ready for the team that needs them.