KITO Electric Chain Hoist Unique Features

Three Standard Features of a KITO Electric Chain Hoist that Are Unique in the Market


Kito Electric Chain Hoist Features

When searching for an electric chain hoist to lift high-mass items at your business premises, you need to make safety and efficiency your top priorities. This means putting the right solutions in place to guarantee the right results, every time. KITO heavy-duty hoists are the answer here. Let’s take a look at some of the features you’ll find on a KITO Electric Chain Hoist that you won’t find as standard anywhere else in the market. These features keep operating costs low while boosting workplace safety and equipment longevity.


The built-in Count Hour (CH) meter is a standard feature on KITO Electric Chain Hoists. This feature records the hoist’s operating time, delivering crucial insight that can be used to schedule maintenance and monitor usage levels.

An accurate CH meter data history is important for managing inspection periods, including the timely replacement of gear oil, brakes, load chains, and other components. This means you can perform maintenance exactly when it is required — not too early (taking the equipment out of commission unnecessarily) or too late.

Users will also be able to plan when they need to retire the hoist. Retiring the hoist when it reaches its design life is crucial in guaranteeing ongoing safety and effectiveness at your facility. Most hoists do not have the capability to advise users when the end of the design life is approaching, but KITO Hoists include this as standard. Many hoists are in fact retired too early by over-cautious facility managers — the CH meter provides the data required to avoid this.

This feature is fully compliant with Australian Standard AS 2550.1.2011, which specifies the general requirements for the safe use of cranes, hoists, and winches.


Most hoists in the market use zinc-plated chain, which is soft and easily worn down. KITO is the only manufacturer to use original super-strength nickel-plated case-hardened chain certified by the German Institute. Its shorter and narrower link profile allows for greater surface area contact, optimizing its resistance to wear and tear, as well as its overall tensile strength.

In addition, this chain is highly resistant to rust and other forms of corrosion and is designed to combat hydrogen embrittlement.

Our team manufactures and designs both the KITO Hoist body and the chain. We can personally guarantee the quality of the load sheave and the chain, as well as the accuracy of the engagement between the two. This is very different from the majority of our competitors, who design and manufacture their hoist bodies, but order in chains from third-party suppliers.


The dual-speed inverter achieves smoother transitions than a simple pole change motor, reducing load swing. The drive can also be safely started and stopped, with smooth transitions between. Thus, there is less chance of damage to the product or equipment.

Users will be able to accurately adjust the high-to-low speed ratio according to their needs. The inverter will set the phase rotation automatically, meaning that the hoist can be deployed across numerous locations and positions with no need to rewire the phases.

The drive also features Thermal Overload Protection as standard, which protects the hoist motor from overheating and related damage.

View Our Range of Electric Hoists

Care, Use & Inspection of Eyebolts

Care Use & Inspection of Eyebolts

Rigging Eye Bolt

Care, Use & Inspection of Eyebolts

The care, use and inspection of eyebolts is especially necessary when in service eyebolts are transferred from job to job.  Eyebolts should be carefully examined periodically by a competent person.  Should the eye or shank show any excessive wear or damage, then the eyebolt should be discarded and removed from service.


Guidelines for general use


Do not excessively tighten, but have less than
0.04mm gap between the collar and the face of
the load.


Make sure the W.L.L for the eyebolt is checked
against the load being lifted.


The threads of the eyebolt and hole must match in
both size and thread type


Check the eyebolt for cracks, corrosion,
deformation or thread damage and debris.
Discard if worn.


The Australian Standard for Collard Eyebolts is AS 2317.1:2018

Eyebolt Inspection Prior to Use

How to identify an eyebolt conforms to Australian Standards?

  1. Manufacturer’s Identification.
  2. ‘M’ to denote ISO metric thread, coarse series; ‘B’ for BSW; or ‘U’ for UNC.
  3. Nominal size, e.g. M16.
  4. The Working Load Limit marking must be present.

Legible Markings

Ensure the WLL is clearly legible. 


Threads should be concentric and fit neatly into a standard nut.

Threaded hole

The threaded hole in which the eyebolt is to be fitted should also be carefully checked to ensure the hole is free from dirt, grease and other contaminants.  This could restrict the eyebolts from seating correctly in the hole. Particular attention should be paid to the hole thread to ensure it is in good condition.

Check that the hole thread and the eyebolt thread are compatible.

Signs of Deformation

Cracking , nicks, gouges and excessive bruising, wear or corrosion.

Centre Line

Check that the centre line of the eye is aligned with the centre line of the thread.

Check the surface area

 It is important to also carefully check the surface area around the threaded hole (which the eyebolt collar will sit on) to ensure it is clean, free from deformation, cracking or any other problem that may restrict the eyebolt seating correctly.

Care and Use of Eyebolts

Small Eyebolts

Normally, eyebolts of sizes smaller than 12mm should not be used for general lifting, staying or tensioning purposes, as high torsional stresses are easily induced in these smaller sizes by being screwed up too tightly.  However, where they are used, care should be taken to not cause excessive torsional stresses while they are being fitted to a threaded hole.

Matching of Threads

Extreme care should be taken to ensure that eyebolts are not screwed into threaded holes of a different size or type of thread.  Accidents may be caused by eyebolts with metric threads being screwed inadvertently into tapped holes having a BSW or UNC thread and vice versa. Apart from force fits, the thread sizes listed in the table below may be wrongly matched with the risk that the eyebolt may pull out of the threaded hole below the design load.  The possibility of mixing threads has always existed, but it has been accentuated by the change to metric threads.  Where an eyebolt is removed from a threaded hole, it is recommended that the surface adjacent to the threaded hole be marked with the thread type and size and a plug be inserted into the threaded hole, or that other equally effective action is taken to reduce the possibility of mismatching threads. Where an eyebolt cannot be screwed by hand, the cause of the tight fit may be mixed threads.

Threaded Attachment

Where an eyebolt is used in an untapped hole, the thread should engage a nut with a thread length of at least the full thickness of a standard sized nut.  Where an eyebolt is used with a tapped hole in a plate the length of thread engagement should be at least the nominal diameter of the thread.  Where the undercut is not sufficient to allow for an adequate engagement of the collar, a parallel washer beneath the collar should be used so that an adequate engagement is achieved If the nut side of the eyebolt is on a tapered surface, such as the inside flange of an RSJ beam, then a tapered washer should be used.

Use with a Single Eyebolt

Where a single eyebolt is used care should be taken to ensure that it remains screwed home throughout the lifting operation.  If a single eyebolt is used for lifting and there is a possibility that the load will rotate or twist, a swivel should be used in the system to prevent the eyebolt unscrewing

Tightening of eyebolts

Eyebolts should be screwed fully down to the face of the lifted load; however, excessive tightening of the eyebolt should be avoided. It should not be possible to enter a 0.04 mm feeler gauge at any position between the collar of an eyebolt and its seating. Where this condition is not achieved, any non-axial loading may overstress the screw thread.

Alignment of eye

Where correct alignment of the eye of an eyebolt is required but not accomplished at the first fitting, it should be achieved by the following methods: a) Fitting a shim washer of steel under the collar. A shim washer should not be less in diameter than the diameter of the collar, and the thickness should be between 50% and 100% of the pitch of the threaded shank. b) Machining the underside of the collar. The amount of material machined from the collar should not exceed 50% of the pitch of the thread on the shank of the eyebolts.

Loading Not Aligned with Threaded End

Where the centre-line of loading is not in line with the axis of the threaded end of the eyebolt, including where a two-leg sling is connected to a pair of eyebolts to support a load, the following apply: (a) The diameter of the boss of the tapped hole, into which the eyebolt is screwed, should be no less than the diameter of the collar of the eyebolt. (b) The angle between the centre-line of the loading on the eye of the eyebolt and the plane containing the eye of the eyebolt should not exceed 5°, unless an adequate reduction is made to the WLL. Where the perpendicular loading is applied (sometimes called ‘trunnion lifting’), the eye of the eyebolt should be aligned in the vertical plane. Where two pairs of eyebolts are fitted to a single item, lifting should be effected by means of two two-leg slings and a spreader bar to ensure the load is distributed evenly across the eyebolts. This arrangement also allows the load to be readily applied to each eyebolt in the plane of the eye. Use with a Single Eyebolt Where a single eyebolt is used care should be taken to ensure that it remains screwed home throughout the lifting operation. If a single eyebolt is used for lifting and there is a possibility that the load will rotate or twist, a swivel should be used in the system to prevent the eyebolt unscrewing.


Attachment of slings

Eyebolts are not designed to have hooks attached directly to them. An approved shackle should always be fitted to the eyebolt and the slings are then attached to the shackWorking Load Limits On Pairs of Eyebolts

Eyebolts use with slings

Working Load Limits On Pairs of Eyebolts

The Working Load Limits specified in the Australian Standard applies to a direct vertical loading. Where eyebolts are used in pairs and the lift is taken by means of two-legged slings, allowance must be made for the angle between the sling legs, and the Working Load Limit decreased accordingly. The table on the following page indicates Working Load Limit of two-legged slings with included angles of 30°, 60° and 90°, with the
comparative value when the load is carried through a single eyebolt. The load applied to eyebolts, when used in pairs and threaded with continuous slings, is increased considerably by the tension in the horizontal portion of the slings. It is most important, therefore, that continuous slings are not used. Correct and incorrect methods are indicated. Correct and incorrect methods are indicated.

Pairing Sling Legs with Eyebolts

Eyebolt Working Load Limit (WLL) Chart

Eyebolts Working Load Limits
Eyebolts dimensions chart

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(07) 3205 7000

Test and Tag Height Safety Equipment

Who can Test and Tag Height Safety Equipment?

Test and Tag Height Safety Equipment needs to be carried out by a competent person.  This includes all your Fall Protection, Fall Arrest & Fall Restraint Equipment and Systems.

To find out how a competent person is defined read our article .

Test and Tag Height Safety Equipment

When do I need to use Height Safety Equipment?

For anyone working at heights of 2 metres or higher, Height Safety Equipment is required. In addition, all Height Safety Equipment should meet Australian Standards.  A height safety engineer must perform a detailed inspection of the site.  They will determine how the relevant regulations apply per site, its use and the type of Height Safety Equipment required for your premises to achieve compliance depends.

Test and Tag Height Safety Equipment Ascender

Types of Equipment/ Devices and Systems?

There are different types height safetey equipment and systems.  Furthermore, the most appropriate equipment for the premises will depend on the fall hazards that are present.  In additon, where the work is carried out and the work environment needs to be factored in.

Height Safety Lanyard

How regular does Equipment need to be test, tagged and certified?

  • PPE and all webbing-based systems – Every 6 months.
  • Anchor points and rail systems – Every 12 months.
  • Static lines – Every 12 months.
  • Ladder systems – as per manufacturer’s recommendations.
  • Handrailing systems – as per manufacturer’s recommendations.

The above time frames are a guide.  Because other issues,  such as frequency of use and environmental conditions, must be taken into consideration.  We recommend contacting Absolute Lifting and Safety so we can provide specific advice for your site.

Height Safety Line Kit

What are some of the ranges of height safety equipment?

A comprehensive height safety system may require the installation of several different types of height safety equipment:

Who Can Test Lifting Equipment

Who can test and tag lifting equipment ? 

Testing and Tagging of Lifting and Safety Equipment needs to be carried out by a competent person.

Test and Tag Lifting Equipment Register

How is a competent peson defined?

A person who has, through a combination of training, education, experience, acquired knowledge and skills enabling that person to correctly perform a specific task.

They must demonstrate the ability to carry out work outlined in the Australian Standards for the specific Lifting Equipment to be tested and tagged.

Who can Inspect Lifting Equipment?

All lifting equipment should be visually inspected by the operator prior to use where possible, in order to avoid workplace injuries and or to protect the equipment.  This does not however replace the need for regular inspections, testing and tagging that is required to be carried out by a competent person in alignment with the Australian Standards which stipulates how often test and tagging should be carried out.



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