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Steel Wire Rope

No.601000
H-Lift offers premium steel wire rope engineered for demanding lifting, crane, marine, and industrial applications. Our comprehensive range includes galvanized, ungalvanized, and stainless steel configurations to meet diverse operational requirements.
  • Multiple Surface Finishes: Galvanized (Class A/B for superior corrosion resistance), Ungalvanized (Bright/Black for general applications), and Stainless Steel (Grade 304/316 for marine environments)
  • Versatile Constructions: Available in 6x19, 6x36, 6x37 for general lifting, plus 19x7 and 35x7 for non-rotating applications
  • High Tensile Strength: Grades of 1770, 1960 (EIPS), and 2160 (EEIPS) N/mm² to handle demanding breaking load requirements
  • Core Options: Choose Fiber Core (FC) for flexibility or Independent Wire Rope Core (IWRC) for enhanced crush resistance and strength
  • Custom Solutions: Available in coils, wooden reels, or cut-to-length; preformed or non-preformed options
  • Technical Data

  • Abbreviations & Wire Rope Terms

Steel Wire Rope

Galvanized, Ungalvanized & Stainless Steel Cables

Product Features & Benefits

  • Diverse Surface Finishes: Available in Galvanized (Class A/B for corrosion resistance), Ungalvanized (Bright/Black for general use), and Stainless Steel (Grade 304/316 for marine environments).
  • Wide Range of Constructions: Stocking popular configurations including 6x19, 6x36, 6x37 for general lifting, and 19x7, 35x7 for non-rotating applications.
  • High Tensile Strength: Grades available in 1770, 1960 (EIPS), and 2160 (EEIPS) N/mm² to meet demanding breaking load requirements.
  • Core Options: Choose between Fiber Core (FC) for flexibility or Independent Wire Rope Core (IWRC) for crush resistance and higher strength.
  • Comprehensive Applications: Engineered for cranes, elevators, mining, fishing, drilling rigs, and general engineering purposes.
  • Customization: Supply in coils, wooden reels, or cut-to-length. Preformed or non-preformed options available based on your rigging needs.
Q: What is the difference between IWRC and Fiber Core (FC)?
A: IWRC (Independent Wire Rope Core) is an all-steel core that provides higher strength and resistance to crushing. FC (Fiber Core) provides greater flexibility but lower breaking strength.
Q: How do I measure wire rope diameter correctly?
A: Wire rope diameter is measured across the widest point (crown to crown) of the circle circumscribing the strands, not across the "valleys."

What is Steel Wire Rope?

Wire rope is a type of composite rope made from multiple strands of steel wires twisted together around a central core. It is primarily used in lifting, rigging, and structural applications due to its strength, flexibility, and ability to withstand various stresses.

Applications

Wire ropes come in various configurations, denoted by a notation system that indicates the number of strands and wires per strand (e.g., 6x19 means six strands with 19 wires each). They are used in a wide range of applications, including:

  • Lifting: Attached to cranes or hoists for moving heavy loads.
  • Suspension: Used in structures like bridges or elevators for support.
  • Transmission: Employed in mechanisms such as control cables for aircraft.

Construction

Wire rope typically consists of:

  • Core: The central part of the wire rope, which can be made from steel or fiber materials. This core provides support and stability to the strands laid around it.
  • Strands: Groups of wires twisted together. Each strand is composed of several individual wires, and multiple strands are helically wound around the core to form the complete wire rope.
  • Wires: The individual metal components that make up each strand. The number and arrangement of these wires determine the rope's flexibility and strength.
Wire Rope Strand and Core Construction How to Measure Wire Rope Diameter

General Information on Wire Ropes

Sizes Available

From 3mm to 80mm

Surface Finish

Galvanized and Ungalvanized (bright)

Core Options: IWRC, FC and WSC

Fiber Core (FC)

Made of natural or synthetic polypropylene fibers. Fiber cores offer greater elasticity than a steel core but are more susceptible to crushing and not recommended for high heat environments.

Independent Wire Rope Core (IWRC)

Steel core that can be an independent wire rope. Best suited for applications where a fiber core may not provide adequate support, or in operating environments where temperatures could exceed 180° F.

Wire Strand Core (WSC)

Individual strand used as the core. Provides intermediate support between fiber and independent wire rope cores.

Typical Wire Constructions

6x37, 6x19, 18x7 and more

Fundamental Construction of Wire Rope

Tensile Strengths

1770 N/mm² (IPS), 1960 N/mm² (EIPS) and 2160 N/mm² (EEIPS)

  • Improved Plow Steel (IPS) - 1770 N/mm²
  • Extra Improved Plow Steel (EIPS) - 15% stronger than IPS
  • Extra Extra Improved Plow Steel (EEIPS) - 10% stronger than EIPS

The specification of a wire rope type – including the number of wires per strand, the number of strands, and the lay of the rope – is documented using a commonly accepted coding system, consisting of a number of abbreviations.

Direction and Type of Lay

Left hand lay or right hand lay describe the manner in which the strands are laid to form the rope. To determine the lay of strands in the rope, a viewer looks at the rope as it points away from them. If the strands appear to turn in a clockwise direction, or like a right-hand thread, as the strands progress away from the viewer, the rope has a right hand lay. If the strands appear to turn in an anti-clockwise direction, or like a left-hand thread, as the strands progress away from the viewer, the rope has a left hand lay.

Ordinary and Lang's lay describe the manner in which the wires are laid to form a strand of the wire rope. To determine which has been used first identify if left or right hand lay has been used to make the rope. Then identify if a right or left hand lay has been used to twist the wires in each strand.

Direction and type of lay refer to the way the wires are laid to form a strand (either right or left) and how the strands are laid around the core (regular lay, lang lay, or alternate lay).

Regular Lay – The wires line up with the axis of the rope. The direction of the wire lay in the strand is opposite to the direction of the strand lay. Regular lay ropes are more resistant to crushing forces, are more naturally rotation-resistant, and also spool better in a drum than lang lay ropes.
Lang Lay – The wires form an angle with the axis of the rope. The wire lay and strand lay around the core in the same direction. Lang Lay ropes have a greater fatigue-resistance and are more resistant to abrasion.
Alternate Lay – The wire rope consists of alternating regular lay and lang lay strands—used mainly for special applications.
Wire Rope Lay Direction Wire Rope Construction Details

Wire Rope End Termination Methods

The end of a wire rope tends to fray readily, and cannot be easily connected to plant and equipment. A number of different mechanisms exist to secure the ends of wire ropes to make them more useful. The most common and useful type of end fitting for a wire rope is when the end is turned back to form a loop. The loose end is then fixed by any number of methods back to the wire rope.

Loop with Thimble

When the wire rope is terminated with a loop, there is a risk that the wire rope can bend too tightly, especially when the loop is connected to a device that spreads the load over a relatively small area. A thimble can be installed inside the loop to preserve the natural shape of the loop, and protect the cable from pinching and abrasion on the inside of the loop. The use of thimbles in loops is industry best practice. The thimble prevents the load from coming into direct contact with the wires.

Wire Rope Clamps (Clips)

A wire rope clamp, also called a clip, is used to fix the loose end of the loop back to the wire rope. It usually consists of a u-shaped bolt, a forged saddle and two nuts. The two layers of wire rope are placed in the u-bolt. The saddle is then fitted over the ropes on to the bolt (the saddle includes two holes to fit to the u-bolt). The nuts secure the arrangement in place. Three or more clamps are usually used to terminate a wire rope.

Swaging

Swaging is a method of wire rope termination that refers to the installation technique. The purpose of swaging wire rope fittings is to connect two wire rope ends together, or to otherwise terminate one end of wire rope to something else. A mechanical or hydraulic swager is used to compress and deform the fitting, creating a permanent connection. There are many types of swaged fittings. Threaded Studs, Ferrules, Sockets, and Sleeves are a few examples.

Socket Termination

A socket termination is useful when the fitting needs to be replaced frequently. For example, if the end of a wire rope is in a high-wear region, the rope may be periodically trimmed, requiring the termination hardware to be removed and reapplied. An example of this is on the ends of the drag ropes on a dragline. The end loop of the wire rope enters a tapered opening in the socket, wrapped around a separate component called the wedge. The arrangement is knocked in place, and load gradually eased onto the rope. As the load increases on the wire rope, the wedge becomes more secure, gripping the rope tighter.

Wire Rope End Termination Methods

There are many abbreviations and terms used in association with describing, selecting and using steel wire ropes. This comprehensive guide provides definitions for all commonly used terminology in the wire rope industry.

Abbreviations

Rope Constructions

FFiller
KCompacted strand, core or rope
MCross Lay
SSeale
VTriangular
WWarrington
WSWarrington Seale Core Construction
CCore
EPIWRCIndependent Wire Rope Core Covered with a Polymer
FCFibre Core
FFCFibre Film Core
IWRCIndependent Wire Rope Core
NFCNatural Fibre Core
PWRCParallel Wire Rope Centre
SFCSynthetic Fibre Core
SPCSolid Polymer Core
WCSteel Core
WSCWire Strand Core

Rope Grade (Tensile Strength Grade, MPa)

1770Standard tensile strength grade
1960High tensile strength grade
2160Extra high tensile strength grade

Rope Grade (North America)

EEIPS (XXIPS)Extra Extra Improved Plow Steel
EIPS (XIPS)Extra Improved Plow Steel
IPSImproved Plow Steel
PSPlow Steel

Rope Finish

AZinc coated Class A (Heavy galvanised)
BZinc coated Class B (Drawn galvanized)
UUncoated (or bright)
UngUngalvanised
GalGalvanised

Lay Type and Direction

ALHLAlternate left hand lay
ARHLAlternate right hand lay
ASLAlternate left hand lay
AZLAlternate right hand lay
LHLLLeft hand Lang's lay
LHOLLeft hand ordinary lay
RHLLRight hand long lay / Right hand Lang's lay
RHRLRight hand regular lay
LHRLLeft hand regular lay
RHOLRight hand ordinary lay
SLeft lay (Spiral Rope)
sSLeft hand Lang's lay
sZRight hand ordinary lay
ZRight lay (Spiral Rope)
zSLeft hand ordinary lay
zZRight hand Lang's lay

Rope Strength Forces

ABFActual Breaking Force
Agg BFAggregate Breaking Force
CMBFCalculated Minimum Breaking Force
MBFMinimum Breaking Force Rope
ABLActual Breaking Load
Agg BLAggregate Breaking Load
CMBLCalculated Minimum Breaking Load
MBLMinimum Breaking Load

Miscellaneous

LOLERLifting Operations Lifting Equipment Regulations
LRLow Rotation
NDENon-destructive examination
NDTNon-destructive testing
RCNRope Category Number
SWLSafe Working Load
WLLWorking Load Limit

Wire Rope Terms

Crowd Rope
A wire rope used to force the bucket of a power shovel into the material being handled.
Crown Wires
The outer wires of a rope which come into contact with pulleys, sheaves etc.
Dead Load
The sum total of weights of all mass to be lifted, as distinguished from 'live' load, such as acceleration.
Deflection
The sag in a horizontally suspended wire rope. Normally measured at mid span as the depth from a line joining the tops of the two supports.
Diameter (rope)
Measured across the centre of circle circumscribing all strands.
Dog Leg
A permanent short bend or kink in a wire rope caused by improper use.
Drag Line
The wire rope which pulls the excavating bucket on a dragline excavator.
Drilling Line
In rotary drilling, the wire rope which raises and lowers the traveling block.
Drum
The part of a hoisting or winching mechanism on which the wire rope is spooled. It may be smooth faced or grooved to suit the rope diameter.
Elastic Limit
The limit of stress to a wire rope beyond which it is incapable of recovering its original shape or length.
Elasticity
The characteristic whereby a rope will regain its original shape after a limited stress has been applied.
Endless Rope
A rope in which both ends have been spliced together.
Eye
A loop spliced in the end of a wire rope.
Factor of Safety
Ratio of total rope strength to total applied stress.
Falls
See parts of a line.
Fatigue
Progressive deterioration of rope wires from stretching or bending resulting in cracks and ultimate failure of individual steel wires.
Filler Wires
Small ancillary wires in a strand to position and support the other wires.
Fill Factor
The ratio between the sum of the nominal cross-sectional areas of all the load bearing wires in the rope and the circumscribed area of the rope based on its nominal diameter.
Fleet
The movement of a rope sideways across a drum face or sheave flange.
Fleet Angle
The angle created at the point of intersection of a line drawn from the inside edge of the drum flange or sheave axis and a line drawn along the axis of the rope.
Fusing and Tapering
Reducing the diameter of the end of a wire rope by hot twisting, to facilitate reeving.
Galvanising
A means of protecting steel from corrosive elements by a sacrificial coating of zinc.
Grooves
Depressions on the periphery of a sheave or drum positioning and supporting a wire rope.
Guy Line
A wire rope or strand used to hold an upright structure in position.
Haulage Rope
A wire rope used to pull cars or skips on a track.
Hawser
A rope used in marine applications for towing or mooring vessels.
Incline Rope
Ropes used to operate cars or skips on an incline.
Independent Wire Rope Core
A complete wire rope used as the core of a larger rope.
Inter-strand Break
See Valley Wire Break.
Initial Stretch
The permanent stretch that takes place during the very early part of the working life of a wire rope during the running in period.
King Wire
The centre wire in a strand around which the other strand wires are laid.
Kink
A severe bend in a wire rope which causes permanent deformation.
Kip
A unit of force equivalent to 1000 lbs.
Lang's or Albert lay
A wire rope in which the wires comprising the strands and the strands comprising the rope are laid in the same direction.
Lay
The direction in which wires are laid in a strand or strands into a rope.
Lay Length
The pitch of the strands in the rope.
Left Hand Lay
The manner of laying the strands of a wire rope so that they run from right to left across the top of the rope, as in a left hand threaded screw.
Locked Coil
A strand of smooth cylindrical surface composed of interlocking shaped wires laid in concentric layers around a centre of round wires.
Long Lay
See Lang's Lay.
Low Rotation rope
A multi-strand rope in which the layers of strand are laid in opposite directions, reducing the tendency to spin under load.
Marline
Organic rope fibre used for serving the section of hand spliced wire rope where the strands are tucked.
Marlin Spike
A tool employed for splicing or otherwise working on a wire rope. Usually in the form of a tapered steel pin.
Marry
To butt two ends of a rope for long splicing.
Minimum Breaking Force
Specified value, in kN (or other unit depending upon the specific region), below which the measured breaking force is not allowed to fall.
Minimum Breaking Load
Specified value, in tonnes, tons (or other unit depending upon the specific region), below which the measured breaking force is not allowed to fall.
Modulus of Elasticity
In the case of wire, the ratio between rope loading (or rope tension) and elongation, within the elastic limit.
Non-Rotating
Term used for low-rotation ropes. Note: all stranded ropes will rotate to some degree when loaded.
Open Socket
Wire rope fitting consisting of a basket and two pierced lugs with a pin.
Ordinary Lay
Wire rope in which the wires of the strand and the strands in the rope are laid in opposite directions. Also known as Regular Lay.
Overwind
A rope which leads off the top side of a drum.
Parts of Line (Falls)
The number of times a wire rope is passed through the blocks of a tackle.
Plastic Deformation
Deformation of steel wires due to heavy side (or axial) pressure to the rope.
Preformed Wire Rope
Wire rope in which the strands are permanently shaped, before closing into the rope, to the helical form they assume in the finished rope.
Prestressing
Applying predetermined tensions to ropes before installation in order that initial stretch may be largely removed.
Proof Loading
Tensioning a rope with fittings to a predetermined percentage of its ultimate breaking strength.
Pulley
A simple machine consisting of a wheel with a groove in which a rope can run to change the direction or point of application of a force applied to the rope.
Reel
A cylindrical drum on which lengths of wire rope are supplied or stored.
Reeve
To install wire rope on equipment.
Regular Lay
See Ordinary Lay.
Reverse Bend
Reeving of a wire rope over sheaves or drums so that it bends in opposite directions.
Rigging Screw
A threaded fitting, used for adjusting tension or leveling in a wire rope.
Right Hand Lay
The manner of laying strands of a rope so that they run from left to right across the top of the rope, as in a right hand threaded screw.
Rope Torque
Value relating to the torque generated when both ends of the rope are fixed and the rope is subjected to tensile loading usually expressed in N/m.
Rope Turn
The amount of rotation when one end of the rope is free to rotate and the rope is subjected to tensile loading usually expressed in degrees per metre.
Safety Factor
Ratio of minimum breaking strength of a wire rope to total rope stress.
Safe Working Load
The maximum static load as assessed by a Competent Person which a wire rope may lift, lower or suspend under certain service conditions. Generally replaced by Working Load Limit.
Seale
A strand construction having two layers of equal numbers of wires with the same direction of lay, the outer cover having larger wires than the inner.
Seizing
A wrapping or serving of wire or strand around a wire rope particularly at its ends.
Seizing Strand
A small strand usually of 7 wires made of soft annealed wire.
Serve
To wrap a rope with wire, wire strand or fibre.
Shackle
A 'U' shaped fitting in which the parallel ends have eyes through both of which a single screw or pin may be inserted.
Sheave
A wheel with a grooved circumference over which a rope is bent.
Single Line Pull
A pull where a single rope is used.
Skip
A bucket or container of open-end construction conveying or raising material.
Sling
A length of wire rope, usually with eyes or the end, used for lifting or suspending a load.
Socket
See Open Socket or Closed Socket.
Splice
A wire rope joint in which two ropes are joined into one with maintenance of rope diameter and strength. Also descriptive of the making of a rope eye or loop at the ends of a rope.
Thimble
A grooved metal fitting inserted to protect the eyes of a wire rope.
Torsion
Rotation around axis.
Turnbuckle
A device attached to a wire rope for the purpose of varying the length or tension.
Underwind
A rope that leads from the bottom side of a drum.
Valley Wire Break
A wire break that occurs at the inter-strand contact point or valley area between two outer strands.
Warrington
A strand construction in which one layer of wires is composed of alternating large and small wires.
Wedge Socket
A wire rope fitting in which one end of the rope is secured by a wedge.
Wire Rope Grip
Fitting used to clamp two parts of a wire rope.
Work Hardening
Hardness developed in metal resulting from mechanical working particularly cold working.
Working Load Limit
The maximum static load that a wire rope is designed to lift, lower or suspend.

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