Professionals working in high-risk environments face threats from explosions, fire, metal sparks, high-voltage power, sharp objects, and toxic or corrosive chemicals. They require reliable protective clothing to keep them safe from potential dangers. Industrial protective fabrics are technical clothing meant to protect workers from environmental and workplace hazards. Safety fabrics should be comfortable, provide maximum protection for the wearer both indoors and outdoors, and give them freedom of movement.
Protective textiles should also remain compliant with government and industry standards for workplace safety. Protective apparel must keep workers safe while meeting the requirements of the oil and gas, metalworking, energy, utility, chemical, and manufacturing industries. Learn more about the properties, benefits, and applications of various safety fabrics.
Safety Fabric Properties: Fire, Cut, and UV Resistance
Protecting employees from workplace hazards is one of the crucial responsibilities of the employer, who needs to identify the safety risks in the workplace. The type of protective fabric chosen will depend on the nature of work, potential hazards, and compliance requirements under the relevant ANSI, ASTM, AATCC, OSHA, FAR 25.853 or MVSS 302, and Mil-Spec standards.
Marine conditions are notoriously harsh. Moisture, corrosive salt water, UV radiation, and other factors cause standard fabrics to wear rapidly. With continuous exposure to marine conditions, these fabrics wear and fade. Marine fabrics are specifically engineered to withstand the extreme conditions common in marine operations.
Marine mesh fabric is especially critical for the safe everyday operation of boats and other marine equipment. It is used to move or hold items without retaining water or becoming waterlogged. Marine mesh fabrics are characterized by evenly spaced openings. These openings allow mesh bags, pockets, and nets to shed water rapidly.
Outdoor Mesh Fabrics for Marine Applications
Outdoor mesh fabric for marine applications must be able to resist exposure to moisture, sun, and saltwater over long periods while maintaining its strength, elasticity, and structural integrity. To meet these needs, manufacturers have incorporated a variety of modern materials into specialized marine mesh fabrics that are capable of withstanding even the most extreme marine conditions. Marine-grade polyester fabric and marine nylon fabric are the two most popular materials used in marine applications today.
Marine Nylon Fabric
Marine nylon fabric offers a variety of benefits, for marine applications, including:
Resistance to wear, corrosion, and temperature
Flexible and lightweight
Exceptional tensile strength
Resistance to alkali, acid, and saltwater
Easy to clean and maintain
Variety of hole shapes and sizes
Range of fabrics, from thin netting to heavy cargo nets
Marine Grade Polyester Fabric
Polyester mesh features numerous properties ideal for marine use, including:
Strong and durable
Flexible and elastic
Solution-dyed black to resist UV radiation
Resistant to microbial growth
Resistant to corrosion, heat, and chemicals
Marine Fabrics From Jason Mills
Jason Mills specializes in the development of high-quality fabrics for specialized applications. Our marine fabrics are carefully engineered to perform reliably in even the most extreme marine conditions. With decades of experience, we understand the unique needs of the marine industry and design our fabrics to meet industry-specific standards for safety and performance.
Harsh marine environments require materials that will not lose their structural integrity, fade, or bleed upon exposure to extreme conditions. Jason Mills’ quality marine fabrics are knitted using specialized marine-grade yarns, ideal for use in seat pockets, map and document holders, and mesh containers.
At Jason Mills, we are proud to offer an extensive selection of fabrics to meet a wide range of marine needs. All of our marine fabrics are made with 100% solution-dyed polyesters. The dye is embedded directly in the fiber of the yarn, which allows our fabrics to withstand up to 2,000 hours of exposure to UV radiation without fading.
Mesh screen filters have an open-hole structure that enables them to capture and collect solid particles from liquid or air streams. Available in numerous designs and materials, they serve as a versatile filtration and skimming solution for many industrial, commercial, and recreational applications.
At Jason Mills, we provide standard and custom knitted mesh fabrics in a range of weights, sizes, colors, and finishes to suit different customer needs. Both our nylon and polyester mesh fabric solutions possess distinct benefits that make them suitable for filtration.
Nylon and Polyester Filter Mesh 101
The performance of a mesh filter is highly dependent on the fibers and yarns used to make it. Nylon and polyester are synthetic polymers often used to create mesh screens for filtration or skimming devices. While both are flexible, durable, and lightweight, they each have distinct benefits and limitations that impact their suitability for certain applications.
Polyester Filter Mesh
Polyester is a synthetic polymer formed by a chemical reaction involving alcohol, carboxylic acid, and a petroleum byproduct. The resulting fibers can be stretched and aligned to form yarn with the following properties:
High strength and durability
Excellent dimensional stability
Resistance to acids/alkalis, corrosion, heat/fire, mold/mildew staining, ultraviolet light, and wear
Easy sewing and cleaning requirements
These advantageous characteristics make polyester mesh suitable for a wide range of applications. Whereas the hydrophilic nature of nylon fibers causes them to absorb water, the hydrophobic nature of polyester fibers allows them to repel moisture. As a result, polyester mesh screens will dry faster when exposed to wet conditions. Additionally, polyester is more resistant to heat and UV rays than nylon, making filter mesh made from it a more suitable solution for outdoor environments.
Polyester mesh generally has a slightly rougher feel than nylon mesh. However, a higher filament count can create a lighter, drapier material. It also tends to be less tolerant of stretching and bending than nylon mesh, which limits its use in applications where elasticity is a priority.
Nylon Filter Mesh
Nylon is a synthetic plastic created by extracting and heat treating carbon-based compounds from organic matter. It is capable of being extruded into strands of various sizes and thicknesses to suit different applications. Key properties include:
High tensile strength
Elasticity and flexibility
Resistance to acids, alkalis, corrosion, dust, temperatures, and wear
Hydrophilic and antimicrobial (when combined with silver ion) surface
Soft, smooth feel
Easy cutting, dyeing, and cleaning requirements
Nylon fibers can be knitted into durable mesh suitable for different straining, sieving, and filtering applications. The mesh openings can be constructed in a variety of shapes (such as round, rectangular, or honeycomb) and thicknesses (ranging from thin, lightweight drapes or netting to thick, heavy-duty nets and pads).
In addition to its availability in many designs and configurations, nylon mesh offers a number of other key advantages over alternative filter mesh options. For example, its strength and durability make it a great choice for long-term use. Additionally, its smooth surface facilitates the removal of filtered solids, making it an effective and efficient solution for pool filters and skimmers.
However, unlike polyester fibers, nylon fibers absorb and retain water, which causes nylon mesh screens to stretch and expand in wet or humid environments. Nylon mesh also tends to degrade more quickly than polyester when exposed to direct sunlight, making it better suited for applications that are less exposed to weathering elements.
Common Applications of Nylon & Polyester Mesh Screen Filters
Nylon and polyester filter mesh are used in filtration solutions for numerous industrial, commercial, and recreational applications. For example, they are integrated into pool filters and skimmers, where they help maintain a clean and safe environment for swimmers by capturing and removing debris and other solid contaminants.
Other common applications of nylon and polyester filter mesh include:
Dust collection and separation
Sifting and milling
Fuel and oil filtration in automotive and aerospace systems
Filtration systems in refrigerators, dryers, and other appliances
Filtering tests in laboratory applications
Infusion and transfusion filters in medical applications
Application-specific requirements and environmental factors will dictate which type of filter mesh is most appropriate for an application. For example, nylon’s smooth and soft surface makes it uniquely suited for sensitive medical and diagnostic applications, whereas polyester’s acid resistance and hydrophobicity make it preferable for applications involving acidic substances or long-term water exposure.
Filtration Textile Solutions at Jason Mills
At Jason Mills, we offer an extensive selection of polyester and nylon mesh suitable for filtration applications. They are available with opening apertures of less than 1/16 inch and in weights ranging from 2 to 11 ounces.
Flame-resistant and fire-retardant fabrics are essential safety tools in a variety of industrial, commercial, and municipal applications. Technological improvements in these fabrics have facilitated the development flame barriers, coverings, numerous types of personal protective equipment, and more. This blog post will discuss the differences between flame-resistant and fire-retardant fabrics, common applications of these fabrics, and more.
Flame-Resistant (FR) Fabrics
While there is significant overlap in fire-resistant and flame-retardant fabric—both in terminology and physical usage—the two fabric types have distinct differences.
Fire-Retardant Fabric vs. Fire-Resistant Fabric
Fire-retardant fabrics and fire-resistant fabrics are two different classes of material. Each class has unique attributes that make them advantageous for intense heat or open flame applications, but they use different mechanisms to do so.
Fire-retardant fabrics, also known as chemically flame retardant fabrics, are standard fabrics that have been treated with a special flame-retardant coating. They will burn, but at a much slower rate than untreated standard fabrics. Flame retardancy is classified into three groups: flame retardant (FR), inherently flame retardant (IFR), and durably flame retardant (DFR).
Flame-resistant fabrics are made up of typically synthetic fibers that resist ignition under prolonged exposure to flame or heat. Because of this construction, they are also sometimes referred to as inherently flame-retardant fabrics. Instead of burning, these fabrics will eventually begin to melt. The degree of inherently flame-resistant fibers within a flame-resistant fabric can vary widely from a few percent of the fibers to a full construction, depending on the manufacturer.
Nylon and Polyester Fabric Fire Resistance
Synthetic fibers comprise most of the top choices for fire-resistant fabrics. While most natural fibers are flammable, plastic-based fibers will often melt due to the heat instead of igniting. Nylon and polyester fabrics have become especially popular due to their high melting points and low thermal conductivity. For additional protection, manufacturers can treat the fibers with a solution of fire-resistant chemicals.
Adding a Fire-Resistant Fabric Finish
Certain chemicals can treat natural and synthetic fibers to increase their fire resistance. These chemicals are classified into four different groups based on their effects:
Soft Fire Resistant (FR)
Medium Crisp Fire Resistant (FR)
Medium Soft Fire Resistant (MSFR)
Heat Set Fire Resistant (HSFR)
Polyester Mesh – Soft Fire Resistant (FR)
Polyester Mesh – Heat Set Fire Resistant (HSFR)
Nylon Mesh – Medium Crisp Fire Resistant (FR)
Polyester Mesh – Medium Crisp Fire Resistant (FR)
Polyester Mesh – Medium Soft Fire Resistant (MSFR)
Nylon Mesh – Medium Crisp Fire Resistant (FR)
Fire-resistant and fire-retardant fabrics are necessary in a wide variety of applications. Many industries regulate the types of fabrics allowed in various settings to ensure that facilities meet minimum application safety standards. Some of the most popular applications for these fabrics include the following:
Hospital uses, such as material for drapes, sheets, and mattress covers
Military applications, such as protective military clothing
Occupational safety, with applications primarily focused on worker safety and PPE in industrial and outdoor settings
Recreation, especially in camping, fishing, golfing, hiking, hunting, and shooting
More Information on Fire Resistant/Retardant Fabrics
At Jason Mills, we manufacture a wide variety of knit textiles, including flame-retardant and fire-resistant fabrics. Our materials meet strict industrial and safety standards to ensure every protective fabric is as safe as possible. Our team can research and develop custom fibers to create knit fabrics that target specific operational challenges. Contact us today or request a quote to see how our capabilities can serve your operation.
Antimicrobial fabric is designed to fight the growth of bacteria, mold, fungus, and other microbes. These microbe-fighting properties come from a chemical treatment, or antimicrobial finish, that is topically applied to textiles during the finishing stage, granting them the ability to inhibit microbial growth.
Antimicrobial textile is ideal for many commercial, residential, and industrial applications. However, in regards to stopping the spread of viruses, it is important to understand what this type of fabric can and can’t do.
What Is Antimicrobial Fabric?
Antimicrobial fabric refers to any textile that protects against the growth of bacteria, mold, mildew, and other pathogenic microorganisms. This is achieved by treating textiles with an antimicrobial finish that inhibits the growth of hazardous microbes, creating an added layer of defense and prolonging the life of the fabric.
The pathogen-fighting capabilities of antimicrobial fabric makes it suitable for a wide range of applications across diverse industries, including but not limited to:
Medical. Hospital scrubs, medical mattress covers, and other medical fabric and upholstery often utilize antimicrobial textiles to reduce the spread of disease and infection.
Military and Defense. Used for chemical/biological warfare garments and other equipment.
Activewear. This type of fabric is suitable for athletic wear and footwear as it helps to prevent odors.
Construction. Antimicrobial textile is used for architectural fabrics, canopies, and awnings.
Housewares. Bedding, upholstery, curtains, carpets, pillows, and towels are often made from antimicrobial fabric to prolong their life and defend against bacterial growth.
Can antimicrobial fabric stop the spread of viruses?
While antimicrobial fabric works great to slow the growth of microbes, it does not kill pathogens on contact, meaning it is not completely effective at stopping the spread of viruses. Even the fastest acting antimicrobial textiles take several minutes to kill microbes, while others only stop or slow their growth. Instead of using them as a substitute for hygiene and other health and safety precautions, they should be thought of as an extra layer of defense against harmful microorganisms to use in addition to your regular sanitary protocol.
Antimicrobial Fabric Solutions from Jason Mills
As an expert manufacturer of mesh materials, fabrics, and textiles, Jason Mills keeps up with the latest technology and innovations in antimicrobial textiles to ensure high performance materials for our customers. Our antimicrobial polyester mesh is designed to meet the ever growing requirements of industries such as healthcare, recreation, and more, and it is suitable for products ranging from patient slings and medical curtains to camping materials and pool/spa upholstery.
Contact Us for More Information on Antimicrobial Fabrics
Although antimicrobial textiles are not effective at completely stopping the spread of viruses, they serve as an added layer of protection by slowing or stopping the growth of harmful pathogens and other microbes. At Jason Mills, we research and develop fabrics to meet the needs of various industries, including healthcare, recreation, automotive, industrial, and more. Our commitment to innovation and approach to quality customer services makes us the ideal manufacturer for your textile needs. To learn more about our products, or to get started on your antimicrobial fabric solution, contact us or request a quote today.
One of the pillars of Jason Mills’ knit fabrics product line is polyester mesh. This versatile material is used in a variety of industrial and commercial applications, ranging from the aerospace and automotive sectors to the marine and medical sectors as well as the indoor and outdoor recreational trade.
The following article provides an overview of polyester mesh, discussing its properties, advantages, and applications. It also outlines the differences between polyester and nylon mesh and the importance of fabric finishing and treatment in achieving a particular end-use outcome or performance.
An Overview of Polyester Mesh Fabric
The term “knit mesh fabric” is a general expression used to describe material that is constructed with an open hole structure through the process of knitting (as opposed to weaving which is separate operation). Beyond this broad characteristic, the design of a specific knit mesh material can vary from others in regard to yarn, material weight, aperture opening, width, color, and finish. Polyester yarn is one of the most commonly used fibers in the manufacture of knit mesh fabric.
Polyester consists of flexible, synthetic polymer fibers created through a chemical reaction between alcohol, carboxylic acid, and a petroleum byproduct. The resulting fibers are then stretched and oriented together to form a strong yarn that naturally repels water, resists staining, ultraviolet degradation, and holds up to frequent use. (Please note, water-resistance and other properties inherent in polyester yarn must be enhanced within the finishing process if it is necessary for the performance of the material. This is discussed in greater detail below.)
Properties and Advantages of Polyester Mesh Fabric
Compared to other mesh materials, polyester fabric exhibits a number of advantageous properties that make it suitable for use in a variety of industrial, commercial, and recreational applications, such as:
Ease of use and accessibility. Polyester is a common fiber available at most textile manufacturing facilities. When treated with a light resin the mesh material is easy to install (sew) and clean, thus reducing excess time and labor required for its integration and maintenance.
Dimensional stability. Polyester fibers demonstrate good elasticity, which allows the material to return to its original shape after it is stretched by up to 5–6%. It’s important to note that mechanical stretch is different from fiber stretch. One can design hi-stretch material using dimensionally stable yarns.
Durability. Polyester mesh fabric is highly resilient, offering inherent resistance to damage and degradation stemming from acidic and alkaline chemicals, corrosion, flames, heat, light, mold and mildew, and wear. Factors such a yarn weight (denier), entanglement, and filament count all are critical in determining durability.
Hydrophobicity: Polyester mesh is hydrophobic—i.e., tends to repel water—which translates to superior pigment absorption (meaning easier dyeing operations- as opposed to type 6 or 66 nylon) and drying times (meaning better moisture-wicking properties).
Altogether, these characteristics suit the material for use in a wide range of applications, including ones involving outdoor and demanding environmental conditions.
As indicated above, polyester mesh fabric is highly versatile. Some of the industries that regularly employ the material for their parts and products include:
Knit mesh fabric is most commonly made from either polyester or nylon yarns. While the two synthetic polymers share some properties—e.g., lightweight, durability, and tear resistance—there are several key distinctions that make them suitable for different applications.
Nylon has a smoother and softer feel than polyester, which in some situations makes it more ideal for use in applications requiring high aesthetic quality or user comfort. But, as noted above, other factors such as a high filament count can make polyester just as drapey as soft nylon.
Nylon is hydrophilic (absorbs water), while polyester is hydrophobic (repels water). As such, the former is more likely to be bogged down with water in high-moisture or high-humidity environments, while the latter dries quickly in marine and aquatic settings.
Nylon fibers are innately resistant to wear from bending and stretching, while polyester fibers are inherently resistant to heat and UV rays. These qualities make nylon mesh more suitable for applications where the material will be regularly subjected to bending and stretching, and polyester mesh more suitable for end uses where stability is key and for environments exposed to heat and sunlight. And again, it needs to be noted that these inherent qualities are basic at best. Finishing and treatment are key to performance. See below.
The Importance of Fabric Finishing and Treatment
The functional and aesthetic properties demonstrated by a polyester mesh fabric are dependent upon many factors. For the purposes of this article, we will focus on the final stages of textile production, otherwise known as “the finish”. The finish is typically a topically applied chemical that is set by heat during the process called framing. Once completed, these processes can affect the texture, weight, firmness, colorfastness, and resistances (UV, fire, etc.) of the final material.
As indicated above, the properties exhibited by a fully finished and treated polyester mesh fabric vary depending on the needs of the application and the industry. Some examples include:
Antibacterial finishes: Topically applied anti-microbial finishes eliminate bacterial growth on the surface of the fabric. Bacteria growth creates odor and is also responsible for various healthcare-associated infections. This makes the need for these types of finishes essential for equipment used in the medical and healthcare industries. They are also suitable for sporting equipment as they minimize the spread of odor-causing bacteria.
Anti-static finishes: In operations involving sensitive electrical and electronic components, it is important to minimize the buildup of static charge. Fabrics with anti-static coatings reduce the risk of employees and equipment producing static discharge that impacts the integrity of the components.
UV resistant finishes: Untreated material exposed to UV rays fades and degrades over time. As such, polyester mesh intended for use in outdoor environments (e.g., recreational equipment) requires the addition of UV inhibitors to the fabric finish or dye formulation to retain the original integrity.
Fire Resistant finishes: One of the most commonly used finishes; used to achieve FR compliance in the automotive industry, aeronautical industry, and architectural interior industry (think curtains and indoor rec areas).
Jason Mills: The Experts in Polyester Mesh Fabric Solutions
Polyester knit mesh is a material solution that finds use across a wide range of industrial, commercial, and recreational sectors. Its strength, stability, and durability make it well-suited for many applications. For customers looking for high-quality polyester mesh fabric, the team at Jason Mills is here to help.
At Jason Mills, we specialize in the manufacturing, warehousing, and distribution of industrial polyester and nylon knit mesh. We offer a broad selection of standard textiles and custom-tailored fabric solutions for customers with highly specific or unique needs. For additional information about our standard and custom textiles, contact us or request a quote today.
At Jason Mills LLC, we offer superior knitted mesh fabrics in a variety of weights, sizes, colors, and finishes. Our mesh fabric is comprised of polyester, nylon, or polypropylene fibers and yarns. Most materials are mesh in orientation for enhanced breathability. These fabrics are useful for a variety of applications including industrial, occupational safety, recreational, aeronautical, automotive, medical, and more.
Most of our fabrics are warp knits produced on both tricot and raschel machines. We also on occasion will manufacture circular knits. To understand the difference between these types of machines and the fabrics they produce you need to look no further than the yarn. Tricot styles are exemplified by finer yarns and higher needle counts per inch to produce lighter material and tighter construction. Raschel knitting employs larger industrial yarns for a heavier, rugged look and feel. The mesh itself can be thicker with a more open (mesh) construction. The knitting style used depends largely on the application for which the material is being manufactured. For example, the tricot knits are used to create fabric for lining, lightweight substrates, and fine mesh filters. Raschel is used in the manufacture of sports netting, cut resistant fabrics, golf simulator impact screens, and full-body patient slings.
Nylon Mesh Properties and Benefits
Nylon is a plastic-based synthetic fiber that can be extruded into strands of various sizes and thicknesses. Nylons are actually a family of materials created through the extraction and heat treatment of carbon-based molecules from organic resources. Nylons are wholly synthetic and have a wide range of useful properties, depending on the variety of nylon produced. Properties of nylon include:
Knitted nylon mesh features construction with openings that can be round, rectangular, honeycomb, etc. Fabrics can range from thin, lightweight marquisettes like mosquito netting or shear drapes to thick and heavy durable materials such as automotive cargo nets and scrub pads.
Industrial Applications of Nylon mesh fabric
The unique properties of nylon mesh make it particularly useful for a range of industrial applications, including:
Filtration: Nylon mesh screens for filters, mops, and squeegees
Aerospace: Cargo nets, mesh passenger seat supports, and seat pouches
Nylon mesh can easily be manufactured with varying densities by adapting the sizes of spacing (by machine type) and yarn. It all depends on the needs of the application. In addition, nylon is easy to clean and highly chemically resistant, which gives it a particularly long service life. types Nylon can withstand moderately high heat (temperatures in the range of 340° F) making them particularly useful for industrial or safety applications.
When talking about textiles, the “finish” refers to the functional and aesthetic characteristics of the fabric achieved after all production and processing operations are complete. Depending on what finishing and treatment processes are employed, the final fabric can exhibit properties that vastly differ from the raw fabric, including in regard to color, texture, and performance.
The following article provides an overview of common fabric finishing and treatment processes and fabric finishes.
Types of Fabric Finishing and Treatment Processes
Textile manufacturers employ a wide range of finishing and treatment processes to attain different fabric finishes. Some examples include:
. Mending and Burling
Prior to finishing operations, textiles are often rough around the edges, with loose threads and knots that must be removed and smoothed. Depending on the fabric, various mending, burling, and scouring processes may be required to rid the fabric of any imperfections.
. Washing and Drying
Once smoothed and repaired, textiles are washed in a variety of chemicals. Bleaching, as the name implies, uses chlorine bleach and other chemicals to whiten and brighten. Similarly, scouring uses chemical detergents and heat to remove contaminants left over from the manufacturing process.
Textiles may be dried several times throughout the finishing process, using air or heat to ensure that there is no excess moisture remaining in the material. Since temperature, drying time, humidity, and tautness differ depending on the desired textile, specialized equipment is used to dry the fabric and closely monitor these conditions.
After washing, textiles must be stabilized to ensure consistency and structural integrity. Calendering—one of the most common stabilizing processes used for fabrics—entails the use of heated pressurized rollers to condense the fibers within the fabric. Depending on the fabric, different rollers are used to create different surface finishes.
. Coating and Glazing
Textiles can be treated with a variety of coatings and glazes, including waxes, oils, and plastics or starch, glue, and shellac, respectively. These compounds further enhance the appearance of the fabric (such as by adding glossiness), alter existing characteristics (such as changing the texture), and/or add new properties (such as flame retardance or UV resistance).
Types of Fabric Finishes
Once finished and treated, textiles can have a variety of different finishes. For example:
Texture can range from soft to coarse
Weight can range from light to heavy
Firmness can range from soft to firm
Colorfastness can range from weak to strong
Various resistances (e.g., water, UV, fire, etc.) can range from low to high
The final properties of a textile depend on its intended use.
Technical Textile Finishing and Treatment Considerations
Technical textiles are designed and manufactured for specific non-decorative purposes. During the finishing and treatment stages for any technical textile, it is important to keep the intended function in mind to ensure the finished fabric performs as expected.
Some of the most common types of fabric finishes for technical textiles include:
UV resistant: withstands exposure to UV radiation without damage or degradation
Choose Jason Mills for All Your Knit Textile Needs
At Jason Mills, we are a preeminent manufacturer of knit textiles suitable for use in a wide range of residential to industrial applications. We offer an extensive selection of stock styles as well as research and develop custom fabrics to meet unique needs. Equipped with decades of industry experience, we have the knowledge and skills to provide a textile with the right finishes for any application.
The impact screens used in golf practice simulators represent a growing market with many unique challenges. They must show a clear image of the simulated fairway while remaining durable enough to stand up to thousands of impacts over time. Ultimately, the performance of the simulator hinge on the quality of the fabric used to create the screen. Choosing the appropriate fabric to meet these challenges is vital to the production of a quality screen.
Golf Impact Screens – An Overview
The market for impact screens is actually fairly new. It began emerging within the past decade, leading to many experiments and innovations within the industry as manufacturers tried to determine the best fabrics for the job.
As time has passed, however, the market has drastically grown-and the technology has evolved right along with it. Impact screens need to be smooth and light to maintain a clear projection image. However, since golf balls can reach startlingly high speeds, it is absolutely vital that the screen be made from fabric that can safely absorb the impact without damage or tearing.
At Jason Mills we produce a good, better, best line of materials designed to meet your specific impact screen needs. We offer varying degrees of material density – created by a combination of needles per inch and yarn weight – to produce fabrics for standard and high definition imagery.
Impact Screen Material-Choosing the Best for Your Application
A golf impact screen is only as good as the fabric it is made from. There are a variety of factors to consider when creating impact screens:
The fabric should allow the ball to hit the screen with minimal bounce back or puckering.
The screen should absorb the sound of the impact.
The impact screen should be durable.
The fabric must be capable of displaying a bright, high-contrast image.
Polyester mesh fabrics are excellent choices when seeking a fabric for impact screens, as polyester is made from a powerful synthetic resin often utilized to create fibers used in industrial textiles.
Another important consideration for impact screens is their size. Wider screens will, generally speaking, provide a more satisfactory experience. This is where we really stand apart from the competition at Jason Mills—our textiles for golf impact screens are always a minimum of 120 inches wide, offering an ideal choice for most simulator needs.
Case Study-Golf Impact Screen Manufacturer
Recently, our composite fabrics were tested by an industry-leading manufacturer of impact screens used in commercial golf simulators. Our Premium and Preferred models were both analyzed, both of which utilize our knitted composite textiles.
Testers practiced their golf swings, landing approximately 34,000 shots in total. Even after this intense usage, both screens held up well. In fact, the Premium screen exhibited hardly any stretching, and maintained a particularly clear image throughout the testing phase.
Knitted Textiles From Jason Mills
At Jason Mills, we are the knit textiles experts. No matter your needs, we can research and develop an appropriate knitted composite fabric that meets all of the challenges of your application. To work with us on your next project, contact us or request a quote today.
Medical textiles are versatile fibrous fabrics designed to safely treat wounds and medical conditions. You will generally find one of two main groups of fibers utilized within medical textiles: commodity fibers and specialty fibers.
Commodity fibers are fairly standard and are often made out of materials such as cotton, polyester, or nylon. Specialty fibers, on the other hand, are more unique. Also known as high-performance fibers, specialty fibers are specifically designed to have a wider range of technical uses when compared to commodity fibers. These small-batch fibers each fill a niche within the industry and can be sorted into three groups: high strength, heat resistant, and chemical resistant.
Medical textiles differ from other types of fabrics in that they are designed with medical use in mind. As such, they have a number of properties that make them ideal for use in this field. Medical textiles are typically:
Since there are such a large range of applications for medical textiles, they are categorized into four different categories :
These medical textiles are biocompatible and designed to be used within the human body. Implantable materials have a wide range of restorative uses—for example, they may be used to replace damaged blood vessels, suture wounds, stand in as artificial skin, or replace damaged heart valves. Since it is absolutely vital that implantable materials pose no biological risks, the International Organization for Standardization (ISO) performs vigorous testing to ensure the biocompatibility of these textiles.
While non-implantable textiles are safe for use on the skin, they are never implanted within the body. Some examples of non-implantable materials include bandages, surgical dressings, and gauze—essentially, any type of textile that comes into direct contact with a wound but is not absorbed into the body.
. Extracorporeal Devices
This type of medical textile is used as a stand-in for essential organs that aren’t functioning correctly. Generally, these devices are made from hollow fibers. Examples include:
. Healthcare and Hygiene
This category makes up a large portion of the medical textiles market. Healthcare and hygiene products are designed to either be washable or discarded after a single use. Some examples include:
These textiles help to prevent infection and contamination in a broad range of healthcare applications.
Jason Mills Medical Textile Offerings
At Jason Mills, we strive to meet the healthcare industry’s constantly evolving needs. We research, design, and engineer each of our medical textile products to ensure that they are of the highest quality. Our product offerings include anti-microbial fabrics, water repellent finishes using the latest chemical technology, and mesh for IV infusion bag support. We also offer extreme load-bearing fabrics that can be used as patient slings.
To make these products, we offer a range of medical textiles in various fiber types and finishes to ensure the broadest application reach. Our offerings include: