The article contains detailed information on wire rope assemblies and their use.
You will learn:
A wire rope assembly consists of a wire rope along with end fittings, terminals, or lanyards that are connected to different sections of the rope. This configuration allows the assembly to be utilized for lifting, hoisting, and transporting loads. These assemblies come in various forms, tailored for diverse lifting tasks ranging from small riggings used for positioning components during maintenance to large-scale applications such as supporting suspension bridges.
Central to wire rope assemblies is the type of wire rope used, which differs based on its construction and the arrangement of its strands. While individual wires alone may lack the capacity to bear heavy loads, when these wires are meticulously arranged and twisted into strands, they form a robust and powerful tool capable of lifting substantial weights.
Wire rope assemblies come in various designs, each tailored for specific applications and constructed to handle particular types of loads. They are built to withstand heat and abrasion, ensuring reliable performance across diverse conditions. Choosing the appropriate wire rope assembly is crucial; using an assembly with insufficient load capacity can result in failure of the application.
Wire rope comes in various strengths and metals, which define its load-bearing capacity. Manufacturers offer detailed information about wire rope assemblies and also provide in-person assistance to ensure proper selection and usage.
A push-pull wire rope assembly, also known as a pull-push wire rope assembly, functions as a control mechanism that transmits smooth mechanical force to distant points. These assemblies are used for various applications such as throttle controls, latch releases, actuators, and clutch cables. They operate with minimal friction, even around bends and through narrow passages. The wire rope within the assembly is coated with a polymer to ensure protection and facilitate smooth operation.
Single-leg wire rope slings are widely used in lifting and rigging tasks. They are formed by connecting a wire rope sling to a lifting hook or another attachment point, making them ideal for hoisting heavy items like machinery or construction materials. These slings can be constructed from various wire rope materials, including galvanized and stainless steel.
Multi-leg wire rope slings are akin to single-leg slings but feature multiple legs or branches that converge at a single lifting point. This design enhances load distribution and can boost the overall lifting capacity of the assembly. Multi-leg wire rope slings are available in various materials and can be tailored in different configurations to suit specific lifting needs.
Wire rope lanyards are used to secure tools, equipment, or workers in elevated positions such as scaffolding or construction sites. They are typically made from galvanized or stainless steel wire rope, are designed to withstand heavy loads, and prevent equipment and tools from falling. Wire rope lanyards can be customized to fit specific lengths and attachment points, making them versatile and adaptable for different applications.
Cable railings are a popular type of wire rope assembly used in both residential and commercial construction. These railings are formed by securing horizontal or vertical wire ropes to a supporting framework, creating a robust and stylish barrier for balconies, staircases, and other elevated spaces. Made from materials like stainless steel or others, cable railings can be customized to meet various design specifications.
Guy wire assemblies are essential for stabilizing and supporting tall structures like transmission towers and antenna masts. These assemblies are formed by connecting wire ropes to anchor points on the ground and to the structure, creating a tensioned system that helps withstand wind and other external forces. Made from various wire rope materials, guy wire assemblies are usually designed and installed by skilled professionals.
Wire rope tethers are a specialized type of wire rope assembly designed to secure or anchor equipment and objects. Frequently utilized in marine, transportation, and manufacturing sectors, these tethers can be customized to meet specific length and attachment requirements. They are usually constructed from galvanized or stainless steel wire rope for enhanced durability and performance.
Control cables are used in various applications to transmit motion or force between two points. They are typically made from a combination of wire rope and flexible conduit, which protects the wire rope from external damage and helps to maintain its strength and flexibility. Control cables can be used in a wide range of applications, including industrial machinery, automotive systems, and marine equipment.
Winch lines are a type of wire rope assembly widely used across marine, construction, and transportation sectors. Engineered to handle heavy loads and deliver consistent traction for winches and other pulling mechanisms, winch lines are available in materials such as galvanized or stainless steel wire rope. They are usually equipped with eye hooks or other attachment points to ensure secure connections.
Cane cables are specialized wire rope assemblies employed in the sugar cane harvesting industry. They are used by connecting wire ropes to harvesting machinery or tractors, facilitating the transportation of harvested cane from the fields to processing facilities. Typically made from galvanized or stainless steel wire rope, cane cables are engineered to endure the tough conditions prevalent in sugar cane cultivation.
Wire rope sling assemblies are highly adaptable tools used in various lifting and rigging operations. These assemblies are constructed by shaping wire rope into a sling configuration and securing it to a lifting hook or similar attachment point. Available in numerous configurations such as single-leg, multi-leg, and endless slings, wire rope sling assemblies can be tailored to meet specific lifting needs.
Wire rope hoists are employed in diverse industrial and construction settings to handle heavy lifting and moving tasks. Usually powered by an electric motor, these hoists use wire rope to raise and lower loads. They can be customized to meet specific lifting needs and come in various capacities and configurations to suit different applications.
Wire rope catenary systems are utilized in applications such as overhead power transmission. These systems are formed by suspending wire rope between two anchor points, allowing it to naturally sag into a curve known as a catenary. Designed to endure substantial loads, wire rope catenary systems offer dependable support for overhead structures.
Each wire rope assembly is tailored for particular applications and constructed using specialized methods and materials. By familiarizing themselves with the various types of wire rope assemblies and their intended uses, users can choose the most suitable assembly for their needs, ensuring both safety and efficiency in their operations.
A wire rope assembly consists of wire rope combined with end fittings, terminals, and lanyards to create a cohesive unit. The choice of end fittings, terminals, and lanyards depends on the specific application of the assembly. End fittings are attached at each end of the wire rope, connecting it to equipment or other objects.
Hooks are essential for linking a wire rope assembly to a load or anchor point. They are available in different shapes and sizes, such as eye hooks, clevis hooks, and grab hooks, and are typically constructed from materials like alloy steel or stainless steel.
Eyelets are essentially loops that are formed at the end of a wire rope. They are used to create an attachment point or to pass the rope through itself to form a loop. Eyelets can be made from materials like aluminum, stainless steel, or carbon steel.
Wire rope thimbles are used to form a reinforced loop or eyelet in the wire rope. They protect the rope from friction and wear at the anchor point, thereby extending the lifespan of the wire rope assembly.
Thimbles are offered in various sizes and strengths, and are available in both light duty and heavy duty grades. Light duty thimbles are suited for static applications where minimal load is expected, while heavy duty thimbles, featuring a robust coating, are designed for applications involving frequent connection and disconnection of the wire rope assembly.
Selecting the appropriate wire rope thimble depends on the environmental conditions where it will be used. Stainless steel thimbles are ideal for corrosive or saltwater environments. Most wire rope thimbles are made from materials such as zinc-plated steel, hot-dipped galvanized steel, or grade 316 stainless steel.
Sleeves, also known as ferrules, are used to terminate a wire rope by crimping the sleeve onto the rope. This creates a strong and durable attachment point that can be used for a variety of applications. Sleeves can be made from materials like copper, aluminum, or stainless steel.
Shackles are employed to link two wire rope assemblies or to attach a wire rope assembly to a load or anchor point. They are available in different shapes and sizes, such as D-shackles, bow shackles, and screw pin shackles, and are commonly made from materials like alloy steel or stainless steel.
The choice of end fittings, lanyards, and terminals is influenced by the application, environmental conditions, and specific requirements of the task. For instance, a lifting sling might utilize a hook or shackle on one end to connect to the load and a thimble or sleeve on the other end to ensure a secure attachment point.
Wire rope cable railing assemblies often employ eyelets or turnbuckles to adjust the tension of the wire rope between posts. It is crucial to choose end fittings that are suitable for their intended use and compatible with the wire rope. To ensure optimal wire rope performance and prevent safety hazards, fittings must be installed correctly and securely.
Wire rope grips are used to secure the wire rope once it has been looped, such as when passing the rope over a thimble. After threading the wire rope through the thimble, the loose end is attached to the main rope using a grip. This grip typically consists of a U-shaped bolt with threaded ends, a bracket that fits over these threaded ends, and two nuts to fasten the grip in place.
Turnbuckles feature two eye bolts at each end of a metal frame and are used to adjust the tension and eliminate slack in wire rope. The central component of a turnbuckle is the metal frame, which connects two threaded end fittings that can come in various forms, including hooks, jaws, and eyes.
Turnbuckle bodies can be either open or closed. Open turnbuckles, the traditional type, have visible threads on the end fittings. Closed turnbuckles, also known as pipe turnbuckles, enclose the threads within a closed frame for a more streamlined look. To adjust the tension, you turn the body of the turnbuckle frame.
A jam nut can be added to the threaded ends of the fittings and tightened to prevent them from loosening or unthreading.
Wire rope sockets are terminations designed to fit onto the ends of wire ropes, providing a secure anchoring system.
Wire rope socks are constructed from braided wire rope and are shaped like an open-ended sleeve. They are available in single eye, offset eye, and lace-up styles, and are typically made from galvanized or stainless steel wire. Wire rope socks are commonly used to pull cables through conduits and are often referred to as pulling socks.
Making splices involves interweaving wire rope strands with one another. The process begins by separating the strands of a wire rope into two sections, which are then looped in opposite directions to create an eye or loop at one end. A metal sleeve is then tightly fitted over the spliced section to establish a strong, permanent connection. This method is both economical and efficient, optimizing the use of wire rope.
A hand-tucked splice is a type of wire rope splicing that does not use a metal sleeve. This method relies on the tension in the wire rope to secure loose strands back into the rope. The end of the wire rope, with its loose strands, is bent backward along the rope body. The strands are then tightly tucked back into the rope to create a sling or eye, weaving them into the body to ensure a secure and tight connection.
Wire rope ball fittings can be positioned at various points along the length of a wire rope and are available in different sizes and diameters. These fittings feature a spherical, ball-like section and a shank that secures them in place. The shank can be located on either side of the ball or on both sides. To install, the fitting is slid onto the wire rope through a central hole in the ball and shank. Once in place, the shank is compressed tightly to ensure a secure connection with the wire rope.
Strap forks are designed to work with ball fittings and feature a bracket-like shape with extended straps or legs that extend beyond the base of the bracket. The length of these straps varies depending on the design of the forks. Holes are located at the top of the straps to secure loads. The base of the straps has a hole that fits over the ball of a ball fitting, allowing the strap forks to rotate or twist with the loads. This movement helps reduce friction on the wire rope.
Choosing the right material for constructing a wire rope assembly is crucial to its performance and safety. Using an inappropriate material can result in hazardous conditions and potential failure of the assembly. The main materials used in wire rope assemblies include steel, stainless steel, galvanized steel, and bright steel. Understanding the properties of these materials can help ensure the successful and safe use of a wire rope assembly.
Steel wire rope is the most widely used type of wire rope in industrial applications, known for its high strength and durability. It is constructed from high-carbon steel wires that are twisted into strands, which are then combined into the final rope. Steel wire ropes are commonly employed in various industries, including construction, mining, oil and gas, and marine.
Stainless steel wire rope is highly resistant to corrosion, making it ideal for use in harsh environments or when exposed to chemicals. It is frequently used in marine, food processing, and pharmaceutical industries due to its durability and resistance to rust and degradation.
Galvanized steel wire rope has a protective coating of zinc, which provides corrosion resistance. It is commonly used in applications where the rope is exposed to outdoor environments or corrosive substances. It is used in construction, marine, and transportation industries.
Bright steel wire rope is produced without any surface treatment or coating, relying on lubrication to protect against corrosion. Made from carbon steel, it can handle loads similar to those of galvanized steel wire ropes. However, bright steel wire ropes are not suitable for use in environments with high humidity, moisture, or harsh chemicals due to their limited corrosion resistance.
Bright steel wire rope is utilized in single-part lines and in scenarios where resistance to cabling is necessary within multipart systems. However, its rotation-resistant design presents limitations, requiring careful handling and specific applications to ensure optimal performance.
Since Wilhelm Albert's invention of wire rope at the dawn of the Industrial Revolution, it has become essential in industrial applications for lifting, hoisting, and securing materials and goods. Following its introduction, wire rope assemblies quickly gained popularity due to their superior performance compared to hemp ropes and metal chains. Its widespread use is attributed to its exceptional properties and characteristics.
Wire rope and wire rope assemblies are renowned for their high strength and durability, making them well-suited for lifting and moving heavy objects. They are also resistant to abrasion and corrosion, which contributes to a longer lifespan and lower maintenance costs.
Wire rope assemblies are engineered to handle heavy loads, making them suitable for applications that require significant load capacity. By regulation, these assemblies are marked with a Safe Working Load (SWL) measurement. Their lifting capacities range from one or two tons to up to one hundred tons, depending on their configuration, rope type, and design.
Wire rope assemblies are designed with a strong emphasis on safety. They are engineered to endure high stress and heavy loads, and undergo rigorous testing to meet industry standards for safety and performance. These assemblies are frequently used in critical applications, such as elevators and construction sites, where worker safety is paramount.
Wire rope and wire rope assemblies are highly versatile and adaptable, suitable for a wide range of applications across various industries. Whether in construction, mining, transportation, or aerospace, these assemblies can be customized to address the specific requirements of each sector and application.
Although wire rope assemblies may involve a higher initial cost compared to some other lifting and rigging solutions, they provide a longer lifespan and lower maintenance costs over time. This makes them a cost-effective choice for many applications, especially those requiring high load capacities.
Wire rope assemblies are typically made from recyclable materials, which have a lower environmental impact compared to other options. Moreover, they are designed to operate with greater energy efficiency than many other lifting and rigging solutions, making them a more sustainable choice for various industries.
Wire rope assemblies offer numerous benefits, including strength, durability, high load capacity, safety, versatility, cost-effectiveness, and environmental sustainability. When selected and used appropriately, they enhance safety, efficiency, and reliability while supporting sustainability objectives. These assemblies are essential in a variety of applications, from lifting and transporting heavy objects to ensuring safety and security in construction and transportation environments.
Since replacing metal chains and ropes, wire rope assemblies have quickly become integral to a wide range of industrial applications. Their popularity is largely due to their exceptional reliability and durability. Whether supporting a television tower under immense stress or moving heavy shipping crates, wire rope assemblies rarely fail and can handle extreme weights of several tons without showing signs of fatigue or stress.
In the transportation industry, wire rope assemblies play a crucial role in various applications. For instance, in suspension bridges, they support the bridge deck and help distribute the load of traffic. They are also essential in elevators, where they are used to lift and lower the elevator cars. Additionally, cable cars rely on wire rope assemblies to support the car and ensure safe operation.
In the construction industry, wire rope assemblies are employed in a range of applications, including crane cables, hoists, and cable railing systems. Crane cables facilitate the lifting and movement of heavy objects at construction sites, while hoists are used to elevate and lower workers or equipment. Cable railing systems enhance safety and security on balconies, stairways, and other elevated areas.
Wire rope assemblies are utilized as drilling lines because of their ability to endure the high pressure, stress, and temperatures encountered during the drilling process. They are employed in various drilling applications, including both deep water drilling at sea and land-based drilling. Wire rope assemblies provide reliable support, stability, and precision control, essential for efficient and effective drilling operations.
Wire rope assemblies are frequently employed in power transmission applications, including hoisting, towing, and conveyor systems, due to their high strength, flexibility, and durability. They are commonly used in cranes, winches, and cable cars, where they efficiently transmit power over long distances and support heavy loads.
Wire rope assemblies play a crucial role in automotive construction, utilized in applications such as clutch and brake systems, suspension systems, and steering mechanisms. They offer dependable and durable performance under high stress and heavy loads, making them vital for the safe and efficient functioning of vehicles.
In the mining industry, wire rope slings are widely used to lift and move heavy objects, including ore and equipment. Their flexibility and durability make them well-suited for the demanding conditions of mining environments.
In the forestry industry, wire rope assemblies are utilized for tasks such as logging and tree removal. They are used to lift and transport logs, as well as to pull trees down in a controlled and efficient manner.
In the manufacturing industry, wire rope assemblies are employed for lifting and transporting heavy objects, such as machinery and products on assembly lines. These assemblies are designed to offer stability and control, enabling precise and safe movement of objects.
In the marine industry, wire rope assemblies are widely used for applications including mooring lines, anchor chains, and winches. These assemblies are engineered to endure harsh marine conditions and resist corrosion effectively.
In the agriculture industry, wire rope assemblies are utilized for various applications, including animal feeders and waterers, as well as for lifting and moving heavy equipment. Additionally, they play a crucial role in sugar cane harvesting, where they are employed in cane haulage systems, winches, and elevators to ensure the safe and efficient transport and handling of sugar cane.
In the food processing industry, wire rope assemblies are employed for a range of applications, including hoisting and conveying food products, as well as supporting equipment like conveyors, ovens, and mixers. To meet hygiene standards and resist corrosion, wire ropes used in this industry are typically made from stainless steel or galvanized steel.
In the pharmaceutical sector, wire rope assemblies serve multiple purposes including the elevation and transportation of machinery and materials. They also play a crucial role in stabilizing HVAC systems and other essential utilities. Typically, these wire ropes are crafted from stainless steel or specialized synthetic fibers to ensure compliance with cleanliness standards and prevent contamination.
In the aerospace sector, wire rope assemblies are employed for diverse functions including control cables, landing gear systems, and wing support structures. These wire ropes are generally constructed from high-tensile steel or advanced synthetic materials designed to be both lightweight and resistant to corrosion.
In the field of entertainment, wire rope assemblies find use in several areas, including stage rigging, suspension setups, and special effects. For these purposes, wire ropes are commonly composed of synthetic materials like nylon or polyester. These materials offer a combination of lightness and flexibility, making them well-suited for handling loads and designing complex rigging arrangements.
Consistent upkeep and examination of wire rope assemblies are essential for maintaining their safety and effectiveness. These assemblies can experience wear from frequent use and be affected by environmental conditions like corrosion, UV radiation, and extreme temperatures. Neglecting regular maintenance and inspections can result in failures that might cause significant downtime, damage to property, and even pose risks of injury or fatalities.
It is important to regularly inspect wire rope assemblies to detect any signs of wear, damage, or other potential problems that might affect their safety and functionality. Such inspections should be carried out by qualified individuals using the correct tools and equipment to ensure thorough and accurate assessments.
Regular cleaning of wire rope assemblies is essential to eliminate dirt, debris, and other contaminants that can speed up wear and corrosion. The specific cleaning techniques should be chosen based on the type of assembly and the conditions of its operating environment.
To minimize friction and wear, and to guard against corrosion, wire ropes need to be lubricated on a regular basis. The appropriate lubricant and its application frequency will vary depending on the specific assembly and the operating conditions it encounters.
Wire rope assemblies exhibiting any signs of wear, damage, or other problems should be replaced promptly to prevent potential failure.
While the strength and durability of wire rope assemblies suggest that they are exceptionally reliable, it is important to recognize that they can still deteriorate and fail over time, just like any other tool. Given their crucial role, understanding the potential types of failures that wire rope assemblies can experience is essential for maintaining their effectiveness.
Over time, wire rope assemblies may undergo fatigue, particularly when exposed to repeated bending, twisting, or other stresses. This can result in wire breakage or other failures, which pose risks, especially when the assembly is used for lifting or moving heavy loads. Regular inspection and maintenance are crucial to address and reduce these potential issues.
Wire rope assemblies are prone to corrosion, particularly when exposed to moisture or adverse environmental conditions. Corrosion can compromise the strength of the wire rope and decrease its load-bearing capacity, potentially making it unsafe. To prevent corrosion, it's important to ensure proper storage and handling, along with regular cleaning and lubrication.
Wire rope assemblies are also vulnerable to abrasion over time, particularly when used for lifting or moving heavy loads or subjected to significant wear and tear. This abrasion can erode the outer layer of the wire rope, revealing the inner strands and diminishing the assembly’s overall strength. To address this issue, regular inspections and timely replacement of worn wire ropes are essential.
Installing and maintaining wire rope assemblies can be intricate, often necessitating specialized tools and knowledge. Incorrect installation or inadequate maintenance may result in wire rope failures or safety hazards. Therefore, it is crucial to engage with skilled professionals who have training in the correct procedures for assembly installation and upkeep.
Installation issues with wire rope assemblies can include problems such as high stranding, incorrect seizing, twisting, and wavy rope. High stranding often results from improper seizing or maintaining seizing during the installation of wedge sockets. Additionally, torque or twisting and wavy rope can develop during installation, potentially leading to grooving issues or kinks.
Wire rope assemblies might not be suitable for all types of lifting and rigging equipment, potentially restricting their use in specific applications. To ensure compatibility and safety, it is important to carefully select and test both the wire rope assemblies and the associated equipment.
The cost of wire rope assemblies can vary widely based on their intended use, the materials used, and the manufacturing processes involved.
Wire breaks in a wire rope assembly should be inspected by a certified inspector from the American Society of Mechanical Engineers (ASME). External breaks on the wire rope can provide insight into the overall condition of the assembly and indicate whether it needs to be replaced.
Inspectors employ various tools to examine the strands of broken wire. Surface breaks on the wire rope and its connections are generally visible and can be easily assessed. Like all equipment, it is essential to keep detailed inspection records, noting the types of breaks, the extent of damage, and the intervals between occurrences. Replacement is recommended when the number of breaks meets or exceeds ASME standards or manufacturer guidelines.
Diameter reduction in wire ropes can result from abrasions, core diameter loss, corrosion, and failure of inner wires. To assess diameter reduction, inspectors compare the current diameter of the wire rope with its original measurement. During use, inspectors periodically measure the diameter at the same location, noting that it often changes from its initial size following installation.
Shock loading is a frequent issue with wire rope assemblies, occurring when tension is abruptly released and followed by a sudden rebound from overloading. This kind of damage is irreversible and necessitates the replacement of the wire rope assembly.
Testing and certification of wire rope assemblies by an ASME inspector are essential to verify the safety and reliability of the assemblies. Given the high stresses and loads these assemblies endure, it is crucial to determine the maximum forces they can tolerate without failure.
Wire rope assemblies should undergo load testing to confirm they can withstand the anticipated loads and stresses during operation. ASME inspectors utilize specific tools and procedures to assess the load-bearing capabilities of these assemblies. They follow the guidelines outlined in the Standard B30.30 and other crane wire rope inspection standards. These guidelines, which include OSHA definitions, address various aspects such as rope structure distortion, broken wires, corrosion, deterioration, and environmental factors.
Wire rope assemblies that pass load testing and meet the necessary standards are certified as safe for use. This certification is carried out by an ASME-licensed inspector.
Wire rope assemblies undergo recertification at regular intervals to maintain compliance with safety and performance standards. The timing of recertification varies based on the type of assembly and its operating environment.
Given their critical role in numerous applications, it is important to evaluate several factors when considering the future use of wire rope assemblies.
While wire rope assemblies are traditionally made from steel or other metals, advancements in material science may introduce new materials for these assemblies. For instance, high-strength synthetic fibers are increasingly being utilized in sectors such as offshore oil and gas and aerospace. These modern materials offer benefits over conventional steel wire ropes, including reduced weight, greater flexibility, and enhanced resistance to corrosion and abrasion.
With the growing integration of automation in industries such as manufacturing and logistics, wire rope assemblies are likely to be employed in increasingly automated systems. This shift may see wire rope assemblies taking over tasks that were once performed manually, such as lifting and transporting heavy loads.
Ensuring safety remains a top priority in industries utilizing wire rope assemblies. Technological advancements, such as sensors and monitoring systems, could enable the early detection of wire rope damage or potential failures, thereby minimizing accident risks. Furthermore, future enhancements may include integrating new safety features into wire rope assemblies, such as superior corrosion resistance, enhanced fatigue resistance, and increased strength.
Wire rope assemblies are inherently more sustainable than other lifting and rigging solutions such as chains and synthetic slings, but there is potential for further improvements. For instance, future designs could incorporate eco-friendly materials like recycled steel or aluminum. Additionally, optimizing the manufacturing process could help minimize waste and reduce energy consumption.
Artificial intelligence (AI) could significantly transform the usage and maintenance of wire rope assemblies. AI can be utilized in predictive maintenance by analyzing data from these assemblies to detect patterns and forecast when maintenance is needed before a failure happens. This approach allows for more efficient and cost-effective maintenance planning.
AI can enhance the design of wire rope assemblies by tailoring them for specific applications. By analyzing data on load, environmental conditions, and wear, AI algorithms can generate optimized designs that enhance performance and durability while reducing weight and cost. Additionally, AI can improve safety by identifying potential hazards and issuing real-time alerts to operators. For instance, sensors can monitor tension and stress on wire rope assemblies, with AI analyzing this data to detect potential problems and notify operators before a failure happens.
These topics highlight some of the key areas where substantial advancements in wire rope assembly design and performance are possible. As industries advance and new technologies emerge, we can anticipate the development of innovative wire rope assembly designs that address the evolving needs of a dynamic world.
An aircraft cable is a style of highly durable cable that is used for aircraft flight controls and other applications and is differentiated from normal cables by its diameter, stranding, and wires, which provide...
A push pull cable control is used for the transmission of multi directional precision control of mechanical motion. The many varieties of push pull cables or controls are adaptable to a wide range of applications and...
Stranded wire refers to thin bundled up wires that are compressed and covered up in insulating material. Stranded wires are more flexible thus making them very ideal for joining electronic circuit components in confined spaces where their bending...
Wire rope is a collection of metal strands that have been twisted and wound to form the shape of a helix with the purpose of supporting and lifting heavy loads and performing tasks that are too rigorous for standard wire...
Wire rope is constructed of multiple strands of wire that are twisted and braided together to form a spiral design or helix. Once the separate wires are shaped into a solid form, they become a single wire with greater strength because...
A bungee cord is a rope that is composed of two or more elastic strands coated with a woven fabric. It has hooks that are placed on both ends. A bungee cord is also known as shock cord and elastic cord...
Cordage is a series of intertwined fibers, strands, strings, or fabric that are joined by twisting or braiding to form a larger more formidable whole. The combination of the materials makes the final, larger strand stronger than its individual pieces...
Electric hoists are material handling equipment used for lifting, lowering, and transporting materials and products. They are powered by an electric motor and have a controller to adjust the lifting parameters...
A gantry crane is an overhead crane that has an overhead beam supported by freestanding legs and moves on wheels, a track, or rail system carrying a bridge, trolley, and hoist. Workshops, warehouses, freight yards, railroads, and shipyards use gantry cranes as their lifting solution as a variation of overhead or bridge cranes...
Rope is a collection of strands, fibers, piles and yarns joined together to form a strong and a large structure. These strands or fibers are either twisted or braided with one another to give high tensile strength to the rope...
A hydraulic lift is a device for moving objects using force created by pressure on a liquid inside a cylinder that moves a piston upward. Incompressible oil is pumped into the cylinder, which forces the piston upward. When a valve opens to release the oil, the piston lowers by gravitational force...
A jib crane is a lifting device with an arm or boom that extends off the main body of the crane to provide extra reach and has a lattice design to lower the weight added to a load. The design of jib cranes allows them to work...
A lift table is a platform capable of holding materials and raising, lowering, and adjusting them to any height to meet the needs of an application and the user’s requirements. Lift tables are supported by a strong, rigid, and stable base frame placed flat on the floor, in a pit, or equipped with casters or wheels...
An overhead crane is a type of heavy duty machinery that is capable of moving extremely heavy loads and equipment from one location to another in a safe and precise manner using the overhead space of a manufacturing facility. Due to the nature of the work they perform...
Scissor lifts are a type of manlift that is commonly used in construction and facility maintenance to raise employees and their tools to working heights. A power system and a control system make up the scissor lift...
A hydraulic system is based on Pascal‘s principle of fluid pressure, which hypothesizes that a change in pressure in a fluid is transmitted to all points of the fluid in all directions. With a hydraulic lift, an electrically powered pump pushes fluid into a cylinder at the base of a lifting jack system that lifts the platform up and down...