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10 Questions You Should to Know about Epoxy coated wire mesh

Author: Fayella

Feb. 24, 2025

Frequently Asked Questions (FAQs) - Epoxy Interest Group

Frequently Asked Questions (FAQs)

About

Yes! According to the CRSI Manual of Standard Practice reinforcing steel should be welded according to the American Welding Society, AWS D1.4/D1.4M. If the steel used for the coated bars meets ASTM A706, the bars are intended for welding without preheating and therefore should be specified for applications that require an appreciable amount of welding. ASTM A615 reinforcing bars can be welded, but may require preheating the bars up to 500° F. After completion of the welding on epoxy-coated bars, the damaged areas shall be repaired using patch materials meeting ASTM A7.

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Epoxy-Coated Steel Reinforcing Bars was first used in on the Schuykill Bridge near Philadelphia, Pennsylvania.

In , more than 60,000 bridges with Epoxy-Coated Steel Reinforcing Bars were listed in the National Bridge Inventory.

Structures built with Epoxy-Coated Steel Reinforcing Bars have longer lives than structures built with black steel.

  • Epoxy-Coated Steel Reinforcing Bars protect even in cracked concrete.
  • Life-cycle analysis shows that Epoxy-Coated Steel Reinforcing Bars provide the lowest cost.
  • Unlike corrosion protection systems used within the concrete mixture, Epoxy-Coated Steel Reinforcing Bars are readily identified at the job site.
  • Continuous reinforced concrete pavement
  • Parking garages
  • Piers and docks
  • Water towers
  • Columns and parapets
  • Dowels
  • Repair

Epoxy-Coated Steel Reinforcing Bars are produced and inventoried nationwide. Currently, 37 plants are certified under the CRSI Fusion-Bonded Epoxy Coating Applicator Plant Certification Program. For the most current CRSI certified Epoxy-Coated Steel Reinforcing Bar Manufacturers please see www.crsi.org under the Certification tab.

Specification

Epoxy-Coated Steel Reinforcing Bars are covered in ASTM A775 and A934 Standard Specifications for Epoxy-Coated Steel Reinforcing Bars.

  • Fabrication and handling of Epoxy-Coated Steel Reinforcing Bars are covered in ASTM D Standard Specification for Fabrication and Jobsite Handling of Epoxy-Coated Steel Reinforcing Bars.
  • Job site handling is also covered in the Appendix of ASTM A775.

Follow design requirements for Epoxy-Coated Steel Reinforcing Bars, as outlined in ACI 318.

  • Purchase from a CRSI certified manufacturer.
  • Consider use of a CRSI certified fabricator.
  • Use the Epoxy-Coated Steel Reinforcing Bars in both top and bottom mats of decks.
  • Minimize damage during transport, handling and placement.
  • Repair damage using two-part epoxy coating, approved by bar supplier.
  • Use plastic headed concrete vibrators during concrete placement.

The development length for Epoxy-Coated Steel Reinforcing Bars is longer.

  • Maintain concrete cover.

Yes. Epoxy-Coated Steel Reinforcing Bars are manufactured using reinforcing bars that are made using almost 100% recycled steel.

  • Epoxy-Coated Steel Reinforcing Bars can also be recycled after use.
  • Epoxy-Coated Steel Reinforcing Bars produce no VOCs during manufacture or use.
  • Structures that use Epoxy-Coated Steel Reinforcing Bars are more durable that those that do not.

Generally, Epoxy-Coated Steel Reinforcing Bars will cost 25 percent to 50 percent more than uncoated bars. However, that increase represents a minute incremental addition to the bridges total cost.

  • In , the cost of three bridges containing Epoxy-Coated Steel Reinforcing Bars were considered and the increase in cost was between 0.49 percent and 2.16 percent of the total structure compared with structures that used uncoated bars.

Process

Epoxy thickness variability Epoxy-Coated Steel Reinforcing Bars eased by 23 percent.

  • Backside contamination was reduced from 40 or 50 percent to 15 percent.
  • Chloride contamination is measured and reduced.

According to the National Bridge Inventory, Epoxy-Coated Steel Reinforcing Bars have been used in more than 60,000 decks while galvanized has been used in only 950.

  • Epoxy-Coated Steel Reinforcing Bars are readily available from certified plants, while galvanized rebar is not.
  • Epoxy-Coated Steel Reinforcing Bars have outperformed galvanizing in almost every laboratory corrosion test of Epoxy-Coated Steel Reinforcing Bars.
  • Galvanized coating quality depends on the steel quality, while Epoxy-Coated Steel Reinforcing Bars do not.
  • Galvanizing may result in brittle bars that break during bending.
  • Epoxy-Coated Steel Reinforcing Bars do not have these embrittlement issues.

Stainless-steel bars cost up to five times as much as black bars and may increase the total structural cost by 10 percent or more.

  • Additional funding often is not available for these products.
  • Stainless-steel bars use materials from hard-rock mining operations, while Epoxy-Coated Steel Reinforcing Bars use scrap steel.
  • Not all stainless steels have demonstrated good corrosion performance in concrete as it depends on the grade of stainless.
  • Care must be taken to ensure that stainless-steel bars are not contaminated with black bar.

Epoxy-Coated Steel Reinforcing Bars have demonstrated long-term field performance.

  • Epoxy-Coated Steel Reinforcing Bars have outperformed ASTM A (MMFX) in almost every lab test.
  • Some laboratory tests indicated that the performance of ASTM A (MMFX) is highly dependent on surface preparation, such as pickling, prior to placement in concrete.
  • ASTM A is only available from a single source and in limited supply.

FRP bars require extensive redesign due to differences in stress/strain values for these bars.

The following ASTM specifications are to be used when specifying Epoxy-Coated Steel Reinforcing Bars.

  • ASTM A775/A775M (Coating Application and Powder Qualification).
  • ASTM A 934/A934M.
  • ASTM D (Fabrication and Field Requirements, Repair Material Qualification).
  • Make sure that proper specifications are included for all stages of the project: coating application, fabrication, field handling, and material pre-qualification.

Application

In Section 6 of ASTM D 'Standard Specification for Fabrication and Jobsite Handling of Epoxy-Coated Reinforcing Steel Bars' it is required that: 'Placed coated bars shall be covered with opaque polyethylene or similar protective material if cumulative environmental exposure of the coated bars, including previously uncovered storage time, of greater than two months prior to concrete embedment is expected.'   The provision for two-months of exposure was developed from testing conducted by C-SHRP where bars were left exposed and then tested. (See: 'http://www.cshrp.org/products/outdoor.pdf') It is known that extended exposure is often unforeseen and that bars may be exposed for longer periods than that suggested by ASTM D. Fusion-bonded epoxy coatings may undergo surface discoloration and chalking from exposure. The Epoxy Interest Group of CRSI cannot endorse the use of products in non-specified manners; however, should extended exposures occur, it is strongly recommended that the bars be carefully inspected and any site of damage or localized corrosion be repaired following Section 7 of ASTM D using a 2-part epoxy, recommended for use on epoxy-coated steel reinforcing.

Two specifications are available for epoxy-coated reinforcing steel, ASTM A775 and ASTM A934. Reinforcing steel bars meeting ASTM A775/A775M Standard Specification for Epoxy-Coated Steel Reinforcing Bars are coated in a straight condition and then bent, whereas ASTM A934/A934M Standard Specification for Epoxy-Coated Prefabricated Steel Reinforcing Bars covers bars that are bent prior to coating.

In the early s it was believed that bending of the coated bars would reduce the corrosion performance of coated bars.  At that time, ASTM A775 required bars to pass a flexibility test that only bent the bars 120 degrees. Coatings would often crack or debond from the steel surface when bent to 180 degrees, reducing their corrosion performance. More recent ASTM A775 specifications require that the bars pass a 180 degree flexibility test. This improved specification has been met through improved surface preparation of the steel prior to coating and use of more flexible coatings. 

According to the specifications, Coatings meeting A775 and A934 are required to pass an abrasion test meeting ASTM D. In this test, they are required to exhibit less than 100 mg of weight loss during cycles. Both standards also require coatings to be tested for impact according to ASTM G14 using a 4-lb tup.  ASTM A775 requires coatings to pass an impact requirement of 80 in-lbf without shattering, cracking or bond loss, whereas ASTM A934 requires an impact of only 40 in-lbf. Thus, the general belief that coatings meeting ASTM A934 are tougher is not supported by the relevant ASTM specifications.

Side-by-side corrosion tests were conducted by McDonald et al. as part of a 5-year FHWA research program[1]. These studies found no significant difference in the performance of either the flexible or non-flexible coatings.

For all coated bars, it is important that coated product be inspected after fabrication and prior to placement into the concrete to ensure that any damage is repaired. Further details on fabrication of epoxy-coated bars are presented in Appendix X1 of ASTM A775 and ASTM D.

Answering this question requires an understanding of the concrete, the coating and the localized environment; however, epoxy-coated bars are routinely specified for structures with a desired 75 year design life and often for structures with a 100-year design life, given an appropriate concrete.

In environments subjected to marine or deicing salts, corrosion initiates when sufficient chloride ions reach the reinforcing steel. The time for these salts to reach the bars is dependent on the concrete permeability and the amount of cracking in the concrete as well as the exposure conditions.

The permeability of concrete depends on the water-cement ratio as well as the presence of pozzolans including fly ash and silica fume or various concrete additives that impart water resistance. When uncoated reinforcing is placed in cracked concrete, corrosion initiates almost immediately the concrete is placed in contact with the salt solution; thus, the presence of cracks will significantly reduce the repair -free life of a structure. Epoxy-coated bars have been found to perform well in cracked concrete compared with the use of concrete modifications alone.

To optimize the design life of structures that use epoxy-coated bars it is recommended that high quality concrete is used with appropriate cover over the reinforcing and that cracks in the concrete are repaired.

Mesh is coated according to ASTM A 884 Standard Specification for Epoxy-Coated Steel Wire and Welded Wire Reinforcement. During the manufacturing process, sharp edges and undercutting, such as found at the welded intersections of welded wire reinforcement, present areas that make coating more difficult, resulting in minor coating voids at these locations.

Section 8.2.2 of ASTM A 884 requires the mesh to contain less than 1 holiday per foot. During evaluation of holidays, voids at the weld intersections are not be counted. Section 13.1 requires that all visible damaged coating be repaired with patching material. Based upon review of sections 8.2.2 and 13.1 as voids are not a result of damage, but occur as a normal part of the manufacturing process. Thus, voids do not require repair.

Once bars are stored outside, in humid or wet environments, corrosion may initiate at the void locations and red rust staining may occasionally be observed. It is important to determine the source of the corrosion staining. If they are occurring at void intersections, then repair is not required according to ASTM A884.

While the specifier may decide that repair of these intersections is important, this repair is over and above that required by the ASTM specifications and additional costs may be incurred by the owner. If repair is to be conducted it should be made using a two-part epoxy material, compatible with the coating and the concrete.

Repair materials for epoxy-coated bars are required to meet either ASTM A775, A934 or D. All three of these ASTM standards require use of a 2-part epoxy coating material. Materials from spray cans cannot meet these standards and thus should not be used for repair of epoxy-coated bars.

A study was recently conducted by the University of Kansas for the FHWA and Kansas DOT that compared the life-cycle costs of epoxy-coated reinforcing steel, uncoated and stainless steel reinforcing bars in bridge decks. This study found that the initial costs of stainless steel in bridge decks was $319/yd2, compared with $189 and $196/yd2 for decks containing uncoated and epoxy-coated reinforcing steel, respectively. Thus, use of stainless steel was $130/yd2 greater than that of the deck containing epoxy-coated bar. Life cycle costs for the epoxy-coated reinforcing steel was the lowest at $237/yd2 compared with $319 and $444 /yd2 for decks containing uncoated and stainless steel reinforcing bars. Thus, the epoxy-coated bars were $82/yd2 less than that of the stainless steel reinforcing over a 75-year design life.

When sufficient chloride reaches the level of the reinforcing steel in concrete, corrosion of the steel occurs. The location that has the highest corrosion rate is generally the location with optimum levels of chloride and moisture. At this anode location, the steel releases electrons that are then consumed at the cathode, which may be in areas of the structure that can be substantially further away from the damage.

During a typical concrete repair, it is common only to remove the damaged concrete, where the steel corrosion has resulted in expansion that sufficiently damages the concrete. Unless precautions are taken as part of the repair process, corrosion damage in immediately surrounding areas may rapidly occur. This 'ring anode' effect occurs as the area after the repair becomes the new anode, and the repaired area may become a strong cathode. At the cathode, electrons react with water and oxygen.

Due to the dielectric (non-conducting) coating on epoxy-coated bars, it is difficult for these bars to become cathodes. Thus, replacing exposed bars in the repair area with epoxy-coated bars substantially reduces the cathode and thus dramatically reduces the ring anode effect, leading to significantly enhanced repair life. Where bars are too short to be replaced or where areas of exposed uncoated reinforcing bars are present, it is recommended that they be coated with a repair material specifically designed to reduce the cathodic effect.

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10 Questions About Wire Forming to Help You Get the Best Products

If you are looking to use a wire form product for your materials handling and washing basket needs, it's only natural to have questions about the wire forming process - whether it's about the wire forming process in general or specific concerns about a customized product. 

As a wire forming manufacturer, Marlin Steel is frequently asked a variety of wire forming questions by its customers. Here is a brief guide to the most common questions about wire forming to help you learn more about the process. 

Quick Links: 

  • What Does the Wire Forming Process Consist Of?
  • 10 Questions About the Wire Forming Process
  • Contact Marlin Steel For All Your Wire Forming Needs

What Does the Wire Forming Process Consist Of?

Wire forming is the process of taking wire, either from a spooled coil or blank length, and bending it into specific forms. Wire forms are extremely flexible, allowing them to be modified into a wide variety of shapes and specific configurations. 

Wire forms can be angled, coiled, cut, or bent in all different directions, making them ideal for customized projects. Whether formed into tiny springs for machinery parts to large chains to carry heavy objects, wire forming is useful for multiple applications.   

10 Questions About the Wire Forming Process

Here are some of the top questions that Marlin Steel often finds questions about from customers. Find the answers to your top wire forming questions down below: 

What's the Biggest Challenge in Making a Wire Form?

The short answer to this question is: it depends.

Every client has unique needs. Because of this, any given customer may need vastly different wire forms for their particular washing and parts handling baskets. From selecting the appropriate grade of steel, welding techniques, coatings, and specific shaping requirements for a given parts washing basket, the permutations for a washing basket's design can be endless.

In some jobs, getting the bend in the metal just right could be the most difficult aspect of making a wire form, while making the necessary welds might be the hardest thing to do in others.

It could be said that getting the right design for a wire form to meet the needs of a specific process is the most challenging aspect of the process. However, with the right machines and a skilled, well-trained operator who knows how to program them behind the controls, this is a challenge that can be overcome consistently.

The company is the world’s best Epoxy coated wire mesh supplier. We are your one-stop shop for all needs. Our staff are highly-specialized and will help you find the product you need.

For example, piercing steel wire is one of the more difficult operations in wire forming. The process involves creating a small opening in a piece of steel wire so that another object can be run through it. This can be especially seen in steel wire baskets meant to be mounted on a corkboard or peg wall, some of the wires may need to be pierced so that nails, screws, or other fastening devices can be used to attach the basket to the other surface.

Since the steel wire to be pierced is generally very hard and small, it requires great force to penetrate and careful preparation, or else the steel wire can be deformed. Marlin Steel overcomes this wire forming challenge by using a high-tonnage steel press to puncture steel wire without having to heat it up first. The result? A perfectly shaped hole in the metal without the risk of post-punch deformities from the superheating process. 

How Much Does Wire Forming Cost?

Wire forming costs depend on the components that go into manufacturing the product and its application. Factors, such as wire materials, labor, volume of wire, use of machines, and shipping costs of formed wire, all contribute to the overall price of wire forming products.

Different types of materials also vary in cost. For example, some materials will be more expensive than others since they can withstand high temperatures. Inconel® is capable of withstanding the most extreme temperatures, but is one of the most costly wire forming materials as a result. 

When determining how much your wire forms will cost, it's important to discuss with an expert. They can help you determine what the best materials are for your product based on its application and environment, and then give you an accurate estimate of the overall cost. 

What Kinds of Wire Forming Machines Are Used in the Process?

Marlin Steel set itself apart from the competition by providing 'Quality, Engineered Quick®' by using a combination of talented and trained employees and advanced factory automation. Some of the wire forming machines used by Marlin Steels' engineers include: 

Rouselle 8SS40 Double Crank Straight Side Press

This automated equipment is used to flatten, swage, pierce, and coin stainless steel wires for various applications, including wire forms. For instance, a wire can be flattened to make a weld joint larger, allowing it to easily join two wires securely.

The Rouselle 8SS40 can complete 75 strokes per minute at peak speed -  which means Marlin's production team can manufacture up to 4,500 special wire shapes an hour with this one machine alone. Besides increased efficiency, the side press is capable of producing results more predictable and consistent than by manual labor. 

The Ultimat UMW-100

Both a welding and a wire forming machine, the Ultimat UMW-100 quickly assembles custom wire forms straight from the coil. This process is not only fast, but especially efficient; it bypasses any extra processes and handling that would be required for doing the wire bending and welding separately.

Besides being capable of producing wire forms quickly, Marlin Steel frequently uses this welding and wire forming machine to make the larger frame pieces for Marlin's stainless steel wire baskets and trays. Watch this video on the Ultimat page to witness the machine at work creating both round and rectangular frames for baskets'all within seconds!

The IDEAL MFDC Welder

For manufacturing complicated final assemblies, Marlin Steel uses the IDEAL welding tool. This welding machine can complete a weld in stainless steel in 2/1,000 of a second. This speed minimizes the chances of spatter, blistering, and other welding deformities caused by excessive heat and weld time.

Marlin Steel's engineering team prefers to use the IDEAL welder to complete custom wire baskets welding instead of the Ultimat wire shaping machine due to its 3D welding capabilities. Since the welding arm can move along the X, Y, and Z axes for full three-dimensional movement, it allows the welder to combine complex shapes independently without operator assistance. 

Wire Bending Robotics 

Marlin Steel uses a variety of specialized wire bending robots for wire forming capabilities. For instance, some of these wire forming machines are robotic arms that bend one piece of wire one bend at a time. Other wire forming machines, such as CNC press brakes, bend already-welded wires one basket edge at a time to speed up final assembly. Additionally, these wire bending robots can produce wire forming products with consistency and speed unmatched by human labor since they cannot be worn out or tired by repetitive movements. 

What Are the Benefits of Using Wire Forming Products?

Choosing the right wire forming products can increase efficiency, decrease costs from damaged equipment, and reduce chances of employee injury. 

Increase Efficiency 

High-quality wire forming products can provide manufacturing facilities with the right tools to complete operations quickly and efficiently, bolstering productivity. 

An example of how expertly crafted wire forming products can effectively increase operational efficiency are the Marlin Steel custom-designed IV poles. Marlin's engineers crafted these IV poles with additional features for easier facilitation of medical operations. With heavy-duty sheet metal bases with high-quality castors and custom laptop and monitor stands, Marlin Steel IV poles are manufactured to facilitate easy transportation between operations so the IV poles can be wheeled to where they're needed most as quickly as possible.

Decreased Costs

High-quality wire forms are manufactured to last years of repeated use without risk of breaking. Broken products result in downtime, which can increase costs and damage goods. Not only would you have to wait for a replacement, but your manufacturing downtime could extend for days - impacting your productivity. High-quality products reduce the risk of increased costs due to faulty manufacturing.   

Improve Employee Safety 

The right wire forming products can help improve employee safety. Cheaper products can break, damage surrounding equipment and injuring employees. By purchasing high-quality wire forming products, you can rely on their structural integrity to withstand released stresses. 

Marlin Steel prides itself on providing 'Quality, Engineered Quick®' products through automated equipment that can produce results far more regularly and predictable than what could be achieved manually. This results in a structural integrity far more sound than other alternatives. 

How Do I Choose the Right Wire Forming Products for My Business? 

Choosing custom wire forming products allows engineers to manufacture wire forms to fit your unique specifications. While stock wire forms are mass produced and therefore not constructed to accommodate your specific needs, custom wire forming products can feature designs that are carefully optimized to your applications, such as meeting your parts finishing processes. Custom wire forms can be designed specifically with specialized inserts, wires, or other design features depending on your need.  

Additionally, custom wire forms are often built to withstand the stresses of multiple types of parts finishing operations and so offer increased longevity compared to stock wire forms. The right custom wire forms can save your manufacturing business time, money, material, and labor on your production processes when compared to a stock product.  

What Is the Hardest Shape to Form? 

Generally speaking, the hardest shape to make with consistency is a wire form with a compound bend.

A compound bend is 'a feature within the wire form that has two adjacent bends or generation with no straight length tangent to the beginning and end of those radii.' To put in more simplified terms, a compound bend involves making two bends so closely to one another that there is no point at which the wire is perfectly straight in between them.

These kinds of bends are difficult because the wire shaping process is done progressively, with a wire being constantly fed through a machine without stopping. Compound bends are doubly difficult near the start of a length of wire because a portion of straight wire is typically required to begin the shaping process.

In most cases, the length of wire needed to start a bend should be 1 to 1.5 times the width of the wire being shaped. This means that a wire that is 0.2' thick would need 0.2-0.3' of space to begin a bend. The 1.5x rule isn't always the case, but it is a good general rule of thumb for making wire forms.

It takes a skilled operator who knows the capabilities of the machinery being used to reliably create such difficult shapes.

What Kinds of Materials Should Be Used for Wire Forming Projects?

Many different materials can be used for wire forming projects. The best materials to use will depend on the wire form's application. With this in mind, here's a short list of some of the best materials to use for wire forming projects: 

Grade 304 Stainless Steel

As an austenitic stainless steel alloy, grade 304 stainless steel boasts incredibly high corrosion resistance and has a higher tensile strength of 621 MPa (90 ksi), making it ideal for handling heavier loads and mild corrosive environments. Grade 304 stainless steel also resists oxidation better than plain steel or iron.

Grade 316 Stainless Steel

Grade 316 SS is a more corrosion-resistant steel than grade 304 stainless steel is. In particular, 316 stainless steel is better at resisting chlorides, such as salt, which makes this stainless steel grade ideal for applications involving caustic environments too hostile for grade 304. 

Grade 434 Stainless Steel

A ferritic alloy of stainless steel, Grade 434 stainless steel has exceptional resistance to pitting. Although less chemically resistant than grade 304, grade 434 is still superior at resisting oxidation, corrosion, and pitting than plain steel is.

Polyester TGIC Powder Coat

A specialized coating to protect the actual wire form from exposure to harsh chemicals and high temperatures, polyester TGIC (triglycidyl isocyanurate) is a powder coat that is particularly resistant to abrasions and chlorides. 

Niloxy High Solid Coat

Like the polyester TGIC powder coat, niloxy solid coatings  are strongly resistant to marring, staining, chipping, humidity, and many solvents to provide excellent protection for metal wire forms.

Plastisol (PVC) Coat

Plastisol is a flexible coating material with properties that can vary based on what plasticizer and processes are used to apply it. It is especially suited for protecting wire forms from chemical exposure.

Inconel®

Inconel® is the brand name of a specially-formulated series of alloys that are specifically made to withstand intense temperatures of up to 1,093.3°C (2,000°F).

Grade 330 Stainless Steel

Another alloy specifically formulated for use in high-temperature applications, grade 330 stainless steel can withstand prolonged exposure to temperatures of up to 1,037°C (1,900°F).

What's the Difference in Forming Plain Steel and Stainless Steel? 

The major difference between wire forming regular steel and stainless steel is that in stainless steel, there are a great many variables that can affect the forming behavior of different grades of stainless steel. These variables include things such as:

  • Surface finish.
  • Elongation properties.
  • Residual drawing compounds.

These are just a few of the factors that can affect the shaping of stainless steel. Of these factors, surface finish is one of the most noticeable differences between shaping stainless steel and ordinary steel.

When forming wire from stainless steel, tool polishing is a critical process in order to make sure that the surface of the steel is free of marks that may be accrued during the shaping of the metal. If this is not done properly, imperfections can be left on the surface of the stainless steel, which can ruin the qualities of the material.

How Has Technology Impacted the Wire Forming Process?

The latest innovations in wire forming manufacturing have been in software, forming head configurations, ease of use and speed with which automated manufacturing machines can shape steel wire.

The improvements in the software and the configuration of the machines now allow manufacturers to make much more than the basic square and circle shapes of yesteryear. Thanks to the increased sophistication of the wire shaping machines of today and the software that is used to run them, much more exotic wire shapes are now possible to meet the needs of every industry, from automobile manufacturing and design to health care applications.

This allows for more custom wire forming designs to be manufactured in less time. Technological advancements in wire form machines allow for even more precise manufacturing at greater speeds - drastically increasing efficiency. As wire forming technology continues to evolve, the more the wire forming process will be fine-tuned for productivity and efficacy. 

How Do I Select the Right Wire Form Manufacturers?

The right wire forming manufacturer will be able to deliver your products to you quickly and efficiently - while manufacturing high-quality wire forms. Marlin Steel is able to deliver 'Quality, Engineered Quick®' for custom wire forms due to its heavy investment in automated wire forming technologies that allow for quick and consistent bending, welding, and more. 

Marlin Steel can manufacture custom wire forming products to meet your specific requirements. With the wide variety of wire forming machines available, Marlin can complete more custom wire form requests - and provide other manufacturers in the USA with domestically-made and shipped products that eliminate the overseas shipping delays and red tape of using foreign-made ones.

American-made wire forms deliver numerous benefits. Since American manufacturing is held to a higher quality standard and must follow American safety requirements, manufacturers are more likely to receive safer products that are less likely to break and possibly injury employees. Additionally, American manufacturers like Marlin Steel help support the American economy. By purchasing American-made wire forms, you're supporting the American manufacturing industry.

Contact Marlin Steel For All Your Wire Forming Needs

This guide to the top wire forming questions should be able to answer your wire-forming questions! If you still need answers, whether about wire forming and wire forming machines in general or what Marlin Steel can do for you, then please contact Marlin Steel today! The expert engineering team would be happy to help.

Or, please reach out about Marlin's custom wire forms that can be customized for your specific business needs. With trained engineers and the top wire forming machines, Marlin Steel can provide for you for all your wire forming needs!

If you want to learn more, please visit our website dutch weave wire mesh.

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