stainless steel wire rope netting brands

Wire mesh is fabricated by the intertwining, weaving, or welding of wires of various thicknesses to create proportionally equal parallel rows and intersecting columns. Also known as wire fabric, wire cloth, or hardware mesh, the production of wire mesh involves the weaving of wire on industrial looms, leaving square or rectangular gaps between the wires. Welded wire mesh or fabric is manufactured using an electric welder that joins parallel longitudinal wires where the wires intersect.

There are a limitless number of shapes, sizes, and configurations of wire mesh made from an assortment of highly durable and resilient materials whose major function is to separate, screen, structure, and shield various applications and processes. The types of wire include galvanized steel, stainless steel, aluminum, steel, and copper alloy wire. The type of application, necessary tensile strength, durability, longevity, and required flexibility are some of the factors used to determine the desired type and style of wire.

The processes used to produce wire mesh are weaving and welding, with wire weaving being similar to the weaving of cloth on a loom, while welding is used to join the wires where they intersect. Both processes are completed using pre-programmed machines.

Near the end of the 17th century, woven wire cloth for the mining and pulp industries came into high demand, leading to the development of wire weaving looms. Over the centuries, the use for wire mesh has advanced beyond mines and pulp mills to architecture, plastic extrusion, aggregate screening, and filtration processing. The rise in demand has led to the modern industrial wire weaving industry.

Weaving Loom — Weaving looms weave mesh rolls with widths of 48”, 60”, 72”, 98”, or wider. The loom has a warp beam, heddle frames, a reed, a rapier for transporting weft wire, and a take-up mechanism.

Manufacturers use looms to weave meshes of standard and custom patterns. The completed mesh rolls are cut to varying lengths depending on the needs of customer specifications. Wires woven horizontally or lengthwise are warp wires, while wires woven vertically or crosswise are referred to as weft wires or shute wires, terms commonly used in textile manufacturing.

Warp Beam — The warp beam is a cylindrical drum wrapped with the warp wires. The warp beam"s tension must be meticulously controlled to avoid elongation of the woven mesh. The number of warp wires varies depending on the mesh width and must be kept the same length.

Heddle Frames — The heddle frames separate the wires that are fed by the warp beam. Most looms have two heddle frames, with one used to lift half of the warp wires while the other pulls the warp wires down. The heddle frames change position as the weft wires move across the warp wires.

Rapier Band — The weft wires are carried across the full width of the cloth by the rapier at each cycle of the heddle frame. It feeds a single weft wire between the sets of warp wires.

Reed — The reed keeps the warp wires from the warp beam in place and accurately spaced and separated. Once the weft wire moves across the warp wires, the reed beats the weft wires tightly in place in the wire cloth.

Once the loom has been assembled and the warp beam loaded, the weaving process is completed automatically. As the loom begins, the warp beam unwinds in slow, even increments. In unison with the warp beam feeding the warp wire, the take-up mechanism winds the woven completed cloth in the same increments as the warp beam. The synchronized motion helps the loom maintain tension on the warp wires, which is a critical necessity for the production of high-quality cloth.

Wire mesh is welded using a semi-automatic process that welds the intersections of the woven wires. Welding machines are programmed to weld the intersections at the horizontal and vertical aligned wires. Several welding techniques are used to join the connections, including resistance welding, tungsten inert gas (TIG) welding, plasma welding, and soldering.

Weld Mesh Machine — The process of wire mesh welding begins with feeding wires into a weld mesh machine, which is much like the heddle frames and reeds of wire weaving.

Wire Spools — Separate spools of wire are fed through a straightener. Pre-cut wires that match the dimensions of the wire mesh are placed separately from the wires fed from the spools. Since the wires are coming off spools, whether pre-cut or fed from them, they are mechanically straightened to lay flat on the welding surface.

Mechanical Placement — The pre-cut wires are laid flat across the wires being fed from the spools. The wires are perpendicular to each other at right angles in mesh welding.

Process Completion — The collection of the final wire mesh from the welding process can be in rolls, like wire weaving, or sheets that are trimmed to size and placed in piles of wire mesh panels.

Welded mesh is heavier, sturdier, and stronger than woven wire mesh and can only be used with thicker wires that are capable of withstanding the welding process. Since the wire is welded, it is more rigid and durable, which makes it ideal for fencing, cages, and concrete mesh sheets.

The different kinds of wire mesh are classified by how they were made, their qualities, function, and weave patterns. Each of the various types is designed to meet the strength, weight, and finish requirements of a project or application. The determining factors regarding the type of wire mesh that will be used are its finish, type of metal, and type of pattern, with finish and metal being the major determining factors.

Welded wire mesh has square-shaped wire patterns. The welding process forms a strong mesh, which makes it perfect for security fencing, storage and racking in warehouses, storage lockers, animal holding areas in veterinary clinics and animal shelters, room divisions, and traps for pests.

Galvanized wire mesh is made from plain or carbon steel wire that is galvanized, a process that involves applying a zinc coating. The zinc layer acts as a shield that protects the wire mesh against rust and corrosion. Galvanized wire mesh can be welded or woven using galvanized wire or plain steel wire that is galvanized after being woven or welded. Of the two processes, galvanizing the wire mesh after it is processed initially costs more but produces a higher-quality wire mesh.

Galvanized wire mesh is ideal for fencing for agriculture and gardening, greenhouse, architecture, building and construction, security, window guards, and infill panels. Due to its cost, it is one of the more widely used of the different types of wire mesh.

The application of a vinyl coating to welded or woven wire mesh creates a strong barrier for very flexible wire mesh. Vinyl-coated wire mesh is stable over a wide range of temperatures, is not degraded by exposure to the sun, and is resistant to scrapes, abrasions, and impact.

The vinyl coating of wire mesh gives the impression that the mesh is made of plastic and is sometimes referred to as plastic mesh. Aside from giving wire mesh an appealing appearance, vinyl-coated wire mesh is long-lasting, durable, and rust- and corrosion-resistant. It seals the wires from water and other intrusive elements.

Welded steel bar gratings are produced by forge welding at extremely high temperatures. In this process, perpendicular bars are drawn across a parallel series of rectangular bars, connecting the bars together. The process creates a fused, long-lasting connection that can withstand the most demanding and hazardous conditions. The steel for welded steel bar gratings is carbon steel or stainless steel and is exceptionally durable, strong, and rigid.

Designed to carry heavy workloads for many years, welded steel bar grating is used for landing mats, bridge decking, ventilation grills, ramps, sidewalks, and industrial flooring. Panels are produced in two to three-foot widths in two-foot lengths in a wide range of bar sizes, from 1” to 6” depths and 0.25” up to 0.50” thicknesses.

Stainless steel wire mesh has all of the positive properties of stainless steel and provides high-quality protection and performance. Steel is widely used to produce wire mesh but rusts easily when exposed to the air. Stainless steel, which has the same compounds as steel, has chromium added that is rust-resistant and protects stainless steel from oxidation.

In wire mesh manufacturing, stainless steel is known for its reliability, sturdiness, and durability. The rust resistance of stainless steel makes it adaptable to any outdoor application. It consistently delivers strength and longevity, making it the most popular wire mesh form.

As with all forms of wire mesh, stainless steel can be welded or woven. The grades of stainless steel used to produce wire mesh are 304, 316, and 316L in wire diameters of 0.022 inches up to 0.105 inches (0.55 to 2.66 mm) with openings of a quarter inch up to one inch (6.35–25.4 mm).

Grade 316 stainless steel is a premium alloy that is used for marine applications. It has exceptional corrosion resistance and is not affected by acids, salt water, or seawater, and comes in fine, medium, or coarse sizes. Stainless steel grade 304 is not as corrosion resistant as grade 316 but is exceptionally workable and less expensive than grade 316.

The pattern of wire mesh determines its capacity and how it can be used. There are an endless number of standard weave patterns and customized ones designed to fit a specific application. One distinction between the various patterns is whether the wire is crimped or not crimped, with crimping mechanically changing the contour of the weft or warp wires.

Crimped wire mesh is a square or rectangular weave that is woven using a crimping mesh machine. The processes used to produce crimped wire mesh involve compressing the wire such that the weft wire wraps over the warp wire and the warp wire wraps over the weft wire. The crimping process produces a bending effect on the wires such that they wrap over each other.

Pre-Crimp — Pre-crimped weaves are crimped with small folds or ridges that are added before the wire is woven to increase the strength and rigidity of the wire mesh. The process prevents the weft and warp wires from moving and keeps them secure.

Lock Crimp — Lock crimp is another pre-crimp process that uses the grooves from the crimping process to lock the weave together at the intersections of the weft and warp wires. As with pre-crimping, the final weave is sturdier and immovable.

Inter-Crimp — With inter-crimp, the warp and weft wires are crimped with additional crimps added between the intersections. It is a process used with fine wire with large openings to ensure the weft and warp wires are accurately and properly locked to provide additional rigidity.

Non-crimped wire refers to plain wire mesh where the wire mesh is formed by a simple over-under weave of the warp and weft wires. The final product has a simple appearance with a smooth, even surface. Traditionally, non-crimped wire or plain wire has a higher mesh count.

Plain weave wire mesh is the most common of the wire mesh products. Wire mesh that has a 3 x 3 or finer wave has a plain weave pattern. It is commonly used for screening, such as screen doors and window screens.

Double weave wire mesh is a variation of the pre-crimped weave pattern. In the weaving process, the warp wires pass over and under two weft wires to form a wire mesh pattern capable of withstanding stressful and demanding uses. The double weave wire mesh pattern produces a wire mesh with extra durability for supporting vibrating screens in mining operations and crushers, fences for farming, and screens for barbecue pits.

Flat top weave has non-crimped warp wires and crimped weft wires that create a sturdy, lockable wire mesh with a flat surface. It has a long abrasive life since no wires project from the top of the mesh to wear. Flat top weave wire mesh has little flow resistance, making it popular for architectural and structural applications requiring a smooth surface. A common application for flat top weaves is for vibrating screens.

The twill weave pattern is ideal for weaving heavier and larger diameter wires. The pattern is formed by weaving warp wires over and under two weft wires or where a weft wire passes over and under two warp wires. The warp wire is inverted at the intersections to create a highly stable, rigid, and strong wire mesh. As the pattern develops, it becomes staggered, giving an appearance of parallel diagonal lines.

Twill weave wire mesh can support heavier loads and perform fine filtering. It is a basic component of the production of filters, colanders for aliments, chemical production, shielding, and mosquito nets. For filtering processes, it is made of stainless steel grades 304 and 316 due to their resistance to acids and wear.

Dutch weave is different from plain weave wire mesh and twill weave wire mesh. In dutch weave wire mesh, the weft wires have a different diameter than the warp wires, with the warp wires being coarser to supply greater tensile strength. Weft wires are finer with smaller diameters to enhance filtering performance. The increased strength and finer openings make dutch weave wire mesh popular as a filtering cloth.

Plain Dutch Weave Wire Mesh — Plain dutch weave combines the dutch weave process with plain wire weave. Using two different diameter wires, the coarse warp wire passes over and under the weft wire while the weft wire passes over and under the warp wire. The main advantages of plain dutch weave wire mesh are mechanical stability, finer wire openings, and exceptionally high tensile strength.

Twill Dutch Weave Wire Mesh — Twill dutch weave is a combination of regular twill weave and dutch weave. The weft wire alternately passes over and under two warp wires creating a fine mesh in the direction of the warp wire, with the warp wires forming a coarser mesh in the same weave. Twill dutch weave is superior to normal twill weave due to the finer openings and the ability to support heavier loads for filtering applications.

The advantages of twill dutch weave wire mesh are its better filtering potential, tensile strength, the ability to filter exceptionally fine materials, and its stability.

Reverse Dutch Woven Wire Mesh — Reverse dutch woven wire mesh is the same as plain dutch woven wire mesh. The difference between the two weaves is how the weft and warp are woven, with the warp and weft wires being reversed. Thin warp wires are placed close together and woven with thicker weft wires, which creates higher strength in the warp wires. The reverse dutch weave is used in applications that need wire mesh with acoustic properties, mechanical strength, and throughput filtration.

Off count wire mesh refers to wire mesh that does not have the same mesh count in both directions creating a rectangular rather than square mesh pattern. It is used in sifting and sizing operations to increase productivity and also where slight inaccuracies are not an issue.

Stranded weave wire mesh uses small-diameter weft and warp wire bunches that are woven in a plain square pattern. The use of multiple wires creates a twill style pattern that is extremely tight and strong. The tightness and density of the weave are useful in microfiltration cloth.

The term mesh count refers to one of the most important principles of the wire mesh manufacturing industry. It is in regard to the number of openings per linear inch in wire mesh. The mesh count is determined by counting the number of openings in one linear inch from the center wire of a wire mesh. It is expressed as a single digit, such as no. 4 for a 4 by 4 mesh or no. 20 for a 20 by 20 mesh. The number is an indication of the number of openings in one linear inch.

The two forms of wire mesh edges are raw and selvage. When wire mesh cloth is woven, the weft wires form an edge along the length of the roll and prevent the mesh from unraveling. In the case of a raw edge, those weft wires are uncovered at the edge of the wire mesh.

With selvage edge wire mesh, the border of the wire mesh is finished to increase the stability of the mesh and protect workers when handling the mesh. There are various methods for creating selvage edges, including looping the wires at the edge of the cloth.

The raw material for wire mesh is its wire, which is made from several types of ferrous and non-ferrous metals. The wire used to produce wire mesh comes in various gauges, which is a numerical representation of the thickness of a wire. In gauge numbering, lower numbers represent thicker wires while higher numbers signify thinner wires.

For plain and crimped wire, the gauge of wire is the same for the shute or weft wires as it is for the wrap wires. With dutch woven wire, the weft and warp wires have different gauges. The bundles for stranded wire mesh consist of very small gauge wires that have been twisted together.

Aside from the gauge of wire, the metals used to make the wire determine the type of wire mesh and its use. Wire for wire mesh is made by drawing raw metal through a die or draw plate. The majority of wires used to make wire mesh are cylindrical, with square, hexagonal, and rectangular also used.

Carbon plain steel is one of the more popular metal wires used to manufacture wire mesh. It is mainly iron with a small amount of carbon and is a low-cost, versatile metal used for window guards, screens, and separation screens for mining. Carbon steel can be zinc coated to make galvanized steel wire or powder coated with plastic.

Stainless steel wire mesh is exceptionally strong and durable with an appealing shiny luster for use in architectural applications. Many stainless steel grades are used in the manufacture of wire mesh, with grades 316 and 304 being the most common.

Grade 304 — has excellent corrosion, heat, and oxidation resistance and is one of the most widely used metal wires in the production of wire mesh. Much of its appeal is due to its very reasonable price.

Grade 310 – has excellent temperature properties, good ductility and weldability, and exceptional toughness. Grade 310 wire is reserved for use with custom-made wire mesh.

Aluminum is lightweight, flexible, malleable, corrosion-resistant, and low priced. It is the most popular of the non-ferrous metals used to produce wire mesh. Aluminum grade 1000, pure aluminum, is seldom used to produce aluminum wire mesh. The majority of aluminum is alloyed with other metals such as copper, magnesium, zinc, or silicon in certain percentages to increase the strength of aluminum as well as improve some of its other properties.

Copper wire mesh is ductile and malleable, with exceptional thermal and electrical conductivity. It is often used for radio frequency interference shields in Faraday cages and electrical applications. As with aluminum, copper is seldom used in its pure form and is usually alloyed to enhance and improve its natural properties.

Copper changes color when exposed to salt, moisture, and sunlight, from salmon-red to shades of brown to gray and, finally, blue-green or gray-green. To avoid the change in the color of copper wire mesh, it is treated with coatings and chemicals, which speeds up or slows down the oxidation process.

Brass is an alloy of copper and zinc. It is a soft, pliable metal known as 270 yellow brass or 260 high brass in wire mesh manufacturing. The chemical composition of 270 yellow brass is 65% copper and 35% zinc. With 260 high brass, the chemical composition is 70% copper and 30% zinc. The increased content of zinc in brass wire mesh gives it high tensile strength and abrasion resistance and produces hardened mesh.

Bronze is also an alloy of copper that consists of 90% copper and 10% zinc. It has the same properties as copper, including malleability, ductility, and durability. Bronze has a higher resistance to corrosion than brass and is harder and less malleable than copper. It is used for industrial applications such as filtering and architectural applications.

The alloys and metals listed above are the more popular types of wire used to produce wire mesh. Other metals that are used for custom wire mesh are titanium, Hastelloy, Monel 400, nichrome, Inconel, and tungsten. Essentially, any ferrous or non-ferrous metal that can be formed into a wire can be used to produce wire mesh.

There are endless uses for wire mesh patterns because they are adaptable and can meet any requirements. Industrial uses for wire mesh are as protective shielding, parts of filtration and separation systems, and railing supports. Wire mesh is the primary part of filtration systems in wastewater treatment plants, petrochemical facilities, and juice production.

Aside from its industrial use, wire mesh has had commercial uses for many years as protection against insects and as parts of animal enclosures. Screen doors, window screens, screen partitions, and decorative screens are produced using various forms of wire mesh.

Electronics Storage — Computers, monitors, and other electronics have to be placed in well-ventilated storage areas. Wire mesh makes it possible for delicate and sensitive electronics to be held securely with limited access.

Convenience — Wire mesh can be used as partitions to separate work positions but afford easy accessibility. It can be easily removed or rearranged to meet the needs of changing organizational dynamics.

Visibility — In warehousing, wire mesh can be used to separate items but make them easily detectable and visible for retrieval. The use of wire mesh removes time-consuming searches and inventory checks.

Strengthening and Support — In the construction industry, wire mesh is added to a building to provide extra support and backing for walls and ceilings.

Cost-Effective — Wire mesh is a cost-effective way to replace panels, shelves, and supports. It is easy to maneuver and place. The superior strength of wire mesh makes it a positive alternative to other forms of filtering and support materials.

Cable mesh, made of high quality stainless steel, is a fabric of particular resilience and flexibility. Invented in 2000, it opens up a new world of spatial possibility using cables. And not doubt, it sweeps across the global market quickly thanks to its high strength, durability as well as corrosion resistance.

Our range of cable meshes are manufactured from high tensile stainless steel AISI 304, 304L, 316 or 316L. Meanwhile, these cables are available in constructions of 7 × 7, 7 × 19 or 1 × 19 and in diameter from 1mm to 4mm. Other specifications can also be manufactured to match your design requirement.

Stainless steel mesh balustrade for bridge, stairs and paths. With high strength and impact resistance, these meshes effectively minimize potential fall accidents.

Also known as zoo mesh and aviary netting, stainless steel cable mesh is perfect for animal and bird enclosure as it is flat and flexible to prevent impact damages.

Stainless steel cable mesh is also used as a garden fences, safety fence in stadium, partition fence and safety net that prevents suicide to the largest extent.

Jakob Rope SystemsJakob Rope Systems is one of the market leaders in the manufacture and supply of top-end, design-forward solutions to industrial and construction-related rope and cable applications in which elegance, simplicity and superlative quality are required.

Now, for more than a century and in over 55 countries, Jakob offers a range of steel rope products to our clients who return time and again seeking a reliable maker and provider of stainless steel wire ropes, rod fasteners, nets and unique fittings, all custom-designed and produced to fit exact specifications. At Jakob, we understand it’s the little details that make the big differences.

Every piece of finished goods leaving our warehouses is put through a stringent testing process to ensure compliance with AISI 316, ISO and DIN standards. Our cable railing, wire mesh, wire ropes, and rods can be used in multiple applications, both indoor and outdoor and at various scales, such as sign stanchions, shelving, as trellises on green walls, safety netting, and even in zoo enclosures.

Jakob and our USA -based team can provide cables and wire netting solutions for any commercial and business application. We take pride in offering custom-made designs to fit our clients’ needs.

Many years ago now, CARL STAHL ARCHITECTURE came up with an innovative construction element that combines protection with aesthetic design: X-TEND. The potential applications for stainless steel mesh are exceptionally varied both indoors and outdoors. Amongst other things, it is used as balustrade in-fill, horizontal or vertical fall protection, dividers, façade cladding, green wall systems or simply very flexible design elements. Architecturally ambitious zoolutions such as lightweight, free-flight aviaries or big-cat enclosures with three-dimensional, curvilinear geometries are also built using X-TEND stainless steel netting. They are just one of the many specialities of CARL STAHL ARCHITECTURE’s experienced planners and wire rope specialists.

High security and fast lead time. We are a reliable supplier and factory of stainless steel wire rope mesh. If you need the ferrule mesh or woven mesh for the new zoo enclosure project, please contact us directly at sales@ecozoomesh.com.

Handwoven Stainless Steel Netting is hand-woven from Material 304 or 316 stainless steel ropes by molds. It is a creative product that perfectly replaces the fences and bars used in zoological gardens, so it is called zoo mesh by clients. Stainless steel wire rope mesh for enclosure fences (alternate names: stainless steel cable mesh, flexible metal mesh, stainless steel wire rope woven mesh, stainless steel knotted rope mesh, stainless steel wire mesh, hand-woven stainless steel netting, stainless steel rope mesh).

HEBMETALMESH is a stainless steel wire mesh manufacturer from China, being a professional Handwoven Stainless Steel Mesh supplier. We are the zoo fence, enclosure factory supplier. Our products are widely used in zoos and therefore referred to by our customers as Zoo mesh. Our products are known as zoo fence, enclosure fence & birds aviary mesh, and so on.

Stainless Steel wire rope mesh enclosures zoo fencing produced by Hebmetalmesh is safety-certified, simple in structure, easy to install. Beautiful in appearance, highly durable, and maintenance-free (alternate names: hand-woven stainless steel netting, stainless steel wire mesh, flexible metal mesh, stainless steel cable mesh, stainless steel knotted rope mesh, handwoven multiple wire mesh).

Flexible HeslyCable ferruled stainless steel cable mesh netting is made from stainless steel wire ropes.Extremely flexible,High strength, Corrosion resistant.Available AISI 316,AISI 304

● Stainless steel wire mesh is pure hand-woven, so it also be called as hand woven stainless steel wire rope mesh or stainless steel rope braid mesh. Every knotting crossing twice by hand, ensure the hole never variant.

Quality Stainless Steel Wire Cable Mesh manufacturers & exporter - buy AISI 316L Ferrule Stainless Steel Wire Cable Mesh | Flexible Wire Rope Mesh from China manufacturer.

Stainless steel rope mesh is made from high tensile stainless steel 304, 316, 304L and 316L. The stainless steel rope construction is 7 × 7 or 7 × 19, and 1 × 7 and 1 × 19 are also available. Stainless steel rope mesh can be divided into two kinds according to the combination method: stainless steel knotted rope mesh and stainless steel ferrule rope mesh. The former is combined by the ropes winded together. And the latter is combined by the ferrules which are made up from the same grade stainless steel.

Except the two main products mentioned above, we also supply stainless steel square rope mesh and anti-theft backpack protector. The stainless steel square rope mesh is mainly used as stainless steel decoration rope mesh because of its beautiful square holes. And stainless steel rope mesh anti-theft backpack protector can protect your valuable bag or luggage from being stolen.

Quality Flexible Architectural Stainless Steel Wire Rope Mesh Net Supplier.Factory Price.Design and Custom Stainless Steel Rope Mesh for Railing.Safety Net.Green Wall.Animal Enclosure Mesh.

Rope mesh assembled by South Korea stainless steel wire rope with 100% seamless rope ferrule. Optimal stretch at 60°angle.unique design.All AISI 316 grade stainless steel.easily install by special border design.available 1.0mm,1.5mm,2.0mm,3.0mm rope.mesh from 20mm to 200mm.

It"s for this reason that you must understand that certain materials are designed to better suit different applications. Wire rope mesh and architectural wire mesh, for example, are both considered a form of design mesh but carry qualities that excel in different applications.

W.S. Tyler has been a prominent architectural wire mesh supplier delivering quality architectural mesh systems for over 20 years. We drive to use these years of experience to ensure your architectural design process seamlessly transforms your vision into reality.

With that, we wrote the following article to differentiate the possibilities of wire rope mesh as well as architectural wire mesh, so you can better identify a design material suited for your needs. You will learn:

Stainless steel wire rope mesh is best defined as a decorative fabric that consists of twilled stainless steel ropes that typically range from 1mm to 4mm in thickness.These systems are easily identifiable by their diamond-shaped openings formed by either braiding, clamping, or welding the ropes throughout the mesh.

Wire rope mesh is known for delivering a number of beneficial qualities that, when used correctly, make wire rope mesh a practical design material. These qualities include:

Now, as stated above, wire rope mesh features diamond-shaped openings. These openings are responsible for creating the flexible security this particle design material is known for.

In addition to the mesh openings, the angle formed at each rope connection is a critical element of wire rope mesh. While these angles are standardized by the supplier, the angle can be altered to accommodate your security and aesthetic needs.

In the world of architectural design, architectural wire mesh is best defined as a metallic fabric that is fabricated of hundreds of individual wires woven together.Using a centuries-old weaving process, the woven wires are customized to take on specific weave patterns that deliver unique characteristics on top of their sheer aesthetics.

These beneficial qualities work together to allow architectural wire mesh to be applied to a wide range of applications, both interior and exterior. That said, architectural wire mesh is broken up into four categories:

Like wire rope mesh, architectural wire mesh offers a variety of beneficial qualities that architects can leverage to create designs that are breathtakingly one-of-a-kind. These quotes are:

Architects often choose architectural wire mesh for its reflective qualities. This allows the architect to leverage the climate of the region to create a dynamic design that changes depending on the positioning of the sun.

With that in mind, the density of the mesh can be altered in different intervals to allow certain areas to be more transparent than others. This is easily controlled by using various wire diameters during the weaving process.

But possibly the most appealing aspect of architectural wire mesh is the variety of weave patterns that can be used to create your wire mesh panels. The pattern you select is a key step to giving your design a distinguishable personality that visitors and onlookers will remember for years to come.

Deciding whether to integrate wire rope mesh and architectural wire mesh into your design process comes down to what your vision entails and the needs of the application.

When it comes down to brass tacks, wire rope mesh is used when pliable security mediums are needed. Architectural wire mesh, on the other hand, is used to provide durable barriers that maintain a desirable level of open surface area.

Something that makes architectural wire mesh a standout design material is its ability to be value engineered. In other words, architectural mesh grants architects the ability to eliminate various elements of an architectural mesh system to better accommodate the budget of a project.

Having said that, from an overall price standpoint, wire rope mesh is more affordable than architectural wire mesh in vast margins. This is because fabricating wire rope requires far less material than the material needed to fabricate architectural wire mesh panels.

With the right specifications, the sun protection offered by architectural wire mesh will also minimize the amount of heat within the structure. When placed along structures such as office buildings, this will result in additional cost savings as less money will be needed to cool the building.

You can also seek a cost-saving avenue and a minimalist design by using architectural wire mesh"s colorization options to place company branding and advertisement directly on the mesh. This, in turn, eliminates the need for costly signage packages.

Wire rope mesh and architectural wire mesh are both design materials that can complement your architectural design process. That said, the functionality of these materials makes their applicability dependent on the application.

Wire rope mesh will be the better choice for applications that rely on a flexible material that can maintain an adequate level of security. Architectural wire mesh is the better design material where optimal rigidity and customization capabilities are preferred.

Now, it"s important that you explore other design materials and not limit yourself to wire rope mesh or architectural wire mesh. Stainless steel cable mesh, for example, provides flexibility comparable to wire rope mesh and durability comparable to architectural wire mesh.

With over 20 years of architectural wire mesh experience, W.S. Tyler is here to remove the roadblocks associated with selecting the ideal design materials so you can allocate time toward other aspects of the design process. This, in turn, will ensure you develop a standout structure that is seen as a work of art.

Whether for pest control, fishing or sports nets, we can help create your netting system with our large stock of high-quality steel wire rope and fittings.

Our range includes flexible and weather-resistant wire rope made from stainless steel – the ideal product for netting systems. Use our wire rope for fall prevention, animal enclosures, safety nets, and much more.