Push/Pull Safety Tools for Suspended Loads: An Australian Selection Guide

Not every push/pull pole suits every lift. Length, shaft material, head design and task environment all influence which tool will actually keep hands away from the load — and which will be abandoned in the kit after the first difficult job.

Why selection matters more than most people think

Push/pull poles are a well-established concept in rigging and load control. The principle is simple: a rigid tool that puts distance between the worker's hands and the load, with a push surface at one end and a retrieval hook at the other. The idea has been in Australian rigging practice for long enough that most experienced riggers and dogmen know what one looks like.

What is less well established is how to select the right one for a specific task — and what happens when the selection is wrong.

A pole that is too short does not put the worker outside the drop zone. A pole that is too long is difficult to control in wind and creates leverage problems when pushing against a heavy load. A push head that is too small slips off a curved or wet surface. A shaft that is too heavy causes operator fatigue in sustained use. In each of these cases, the worker does what workers always do when a tool is awkward: they use it less, and eventually go back to using their hands.

Getting the selection right is the difference between a hands-free lifting policy that changes behaviour and one that does not.

The four selection variables

1. Length

Length is the most important selection variable because it determines how far the operator can stand from the load while maintaining control. The objective is to keep the operator outside the drop zone and clear of the line of fire at all times during load guidance.

For most Australian mining and heavy industry lifting operations, a working distance of at least 1.5 metres between the operator and the load is a practical minimum during the descent and landing phase. A pole of 72 inches (approximately 1,830 mm) provides this working distance when held at a natural arm extension.

Shorter poles — 42 inches (approximately 1,050 mm) — are suited to confined-space work where a longer pole physically cannot be wielded. They should not be used as the standard pole for open-area crane lifts where the working distance they provide is insufficient.

Longer poles — 96 inches (approximately 2,440 mm) — provide maximum separation and are preferred for large crane lifts, offshore deck cargo, and situations where the site's risk assessment specifies a wider exclusion zone. They are harder to control in lateral wind and require a two-handed grip at all times.

Where a site performs a variety of lift types, stocking two pole lengths — a 50-inch or 72-inch for general use and a 96-inch for larger crane lifts — covers most scenarios without requiring a different tool for every task.

2. Shaft material

Push/pull poles are available in fibreglass and various plastics and nylons. The relevant considerations for Australian industry are:

• Fibreglass — durable, maintains stiffness across lengths up to 96 inches, and is the material most commonly used in the tool class. The tool's suitability for tasks near electrical hazards should be confirmed with the supplier or manufacturer before use near live systems.
• Nylon and engineered plastics — suitable for general industrial use, lighter than fibreglass at shorter lengths, and adequate for most maintenance and rigging tasks where electrical proximity is not a consideration.

Avoid improvised poles — timber, scaffolding tube, conduit — even though these are sometimes found in use on site. They do not have a defined push head, they are inconsistent in stiffness and durability, and they typically provide no ergonomic grip.

3. Push head design

The push head is the contact point between the tool and the load. A well-designed push head has enough surface area to distribute force without slipping, and a material that maintains grip on wet, oily, painted or coated surfaces.

Rubberised push heads with a face width of 100 mm or wider are the most common and practical design for general lifting and rigging use. Narrower heads tend to slip on curved surfaces such as pipe or tube. Some poles are fitted with a dual-end design: a push head at one end and a retrieval hook at the other — a practical configuration that allows the same tool to push a load during descent and retrieve a tagline after landing.

4. Weight and balance

A push/pull pole that is too heavy to hold at arm's extension for the duration of a descent and positioning sequence will not be used as intended. A 96-inch fibreglass pole typically weighs between 1.5 kg and 2 kg depending on construction. Where poles are used repeatedly throughout a working day, weight should be a deliberate selection criterion.

Matching the tool to the task environment

What to check before the lift — not before procurement

Even the right tool is ineffective if it is not used correctly. Before any lift where a push/pull pole will be used:

• Confirm the pole is the right length for the task and the exclusion zone
• Check the push head for wear, cracking, or detachment — a loose head under load can slip or fail
• Check the hook end if it will be used for tagline retrieval — confirm it is securely attached and free of damage
• Confirm the shaft is free of cracks, bends, or damage that could affect stiffness or break under load
• Confirm the operator knows how to use the pole — two-handed grip, body position outside the drop zone, communication protocol with the crane operator

A push/pull pole stored in the back of a ute is not the same as one that has been checked, confirmed fit for purpose, and positioned at the lift site before the crane takes the load. The tool only works if it is in someone's hands at the right moment.