Spunbond non-woven fabric is a relatively popular fabric now. Spunbond non-woven fabric has many advantages. Therefore, it has been widely welcomed at all ages. So, how to manufacture large-scale spunbond non-woven fabrics? Naturally, it is necessary to rely on an automated equipment called spunbond non-woven fabric equipment to achieve mass production. The performance requirements of spunbond non-woven equipment are also relatively high. Our manufacturer has done a lot of improvement and research and development work, so that spunbond non-woven equipment has the following excellent equipment characteristics. Let’s take a look.

Equipment characteristics of spunbond non-woven machinery

1. The spunbond non-woven equipment is built with excellent assembly and welding technology as a whole. It has a strong structure, high strength, durable performance, stable operation, and can maintain a good working condition for a long time in a high-load processing environment.
2. The automatic operation design is simple and convenient, and there is no burden for the operator. The use of spunbond non-woven machinery can save a lot of labor costs and achieve higher benefits for enterprises.
3. With stable and reliable processing quality, the overall non-woven products show uniformity, which can maintain a high degree of quality uniformity, reduce the defective rate, greatly improve the market competitiveness of anti-stick non-woven products, and bring continuous continuous improvement to the enterprise. income.
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   As a popular high-quality fabric, spunbond non-woven fabrics naturally need to pay attention to the quality of the process during the production process. Choosing a high-quality processing equipment can significantly improve the quality of spunbond non-woven fabrics. For this, very good quality control can be achieved with our spunbond nonwoven machines.

Have you ever worn a disposable diaper, used a filter, or gone shopping with reusable shopping bags? If so, you’ve likely interacted with spun bond nonwoven fabrics without even knowing it. Spun bond nonwovens are versatile materials widely used in a variety of applications ranging from hygiene and personal care products to industrial filtration and construction materials. In this blog post, we’ll take a deeper look at what spun bond nonwoven fabrics are, how they’re produced, their properties, and common uses.

Spun bond non woven fabrics are manufactured through a process known as spun bonding. In this process, continuous polymer filaments are as extruded through a spinneret and drawn out onto a conveyor belt. As the filaments extruded, they cooled and drawn out simultaneously by winders, quenching towers, and rollers. This draws and orientates the filaments into long strands. The filaments are then as deposited in a randomly distributed overlapping web-like structure on the conveyor belt through mechanical drawing. They are then as bonded together, either through hot air, chemical bonding, or ultrasonic bonding to form a coherent nonwoven fabric.

The key advantage of spun bond nonwovens over other nonwoven processes

Itlike meltblowing or needle punching is that the continuous filaments retain their individual identity even after bonding. This results in nonwovens that are stronger, with higher tensile strength and tear resistance compared to other nonwoven processes. Spun bond fabrics also have very low densities, are uniform in structure and thickness, and are highly permeable to gases and liquids. Some key properties of spun bond nonwovens include:

• High strength and tear resistance
• Uniformity of structure/thickness
• Low density
• Good abrasion resistance
• Permeability to gases and liquids
• Soft hand or feel similar to woven fabrics
• Can be as produced in wide widths on continuous production lines

A wide variety of polymers can be as used to produce spun bond nonwovens including polypropylene (PP), polyester (PET), polyethylene (PE), nylon, and biodegradable polymers like polylactic acid (PLA). However, polypropylene is by far the most commonly used polymer due to its good mechanical properties, chemical resistance, low cost and recyclability. The properties of the resulting spun bond fabric can be as varied by adjusting processing parameters like spinneret design, throughput rate, filament diameter, bonding methods and bond pattern.

Some of the most common applications of spun bond nonwovens include:

• Hygiene Products – Spun bond PP nonwovens extensively used as topsheets and backsheets in disposable diapers, adult incontinence products, and feminine hygiene products due to their breathability, absorbency and fluid handling properties.
• Spun bond PP nonwovens extensively used as topsheets and backsheets in disposable diapers, adult incontinence products, and feminine hygiene products due to their breathability, absorbency and fluid handling properties. Wipes – Wet wipes often contain a spun bond backing to provide strength and integrity to the wipe.
• Wet wipes often contain a spun bond backing to provide strength and integrity to the wipe. Filtration – Spun bond nonwovens used to make a variety of filter media for applications like air filters, liquid filters, face masks etc. due to their high permeability and particle retention abilities.
• Spun bond nonwovens are as used to make a variety of filter media for applications like air filters, liquid filters, face masks etc. due to their high permeability and particle retention abilities. Geotextiles – In construction, spun bond polypropylene nonwovens used as separators, reinforcements and drainage meshes in applications like roads, foundations and retaining walls.
• In construction, spun bond polypropylene nonwovens are as used as separators, reinforcements and drainage meshes in applications like roads, foundations and retaining walls. Apparels – Spunmelt nonwovens are becoming increasingly popular in clothing like sports apparel and athletic gear for their moisture wicking and quick drying properties.
• Spunmelt nonwovens are becoming increasingly popular in clothing like sports apparel and athletic gear for their moisture wicking and quick drying properties. Agriculture – They used as weed barriers, mulch fabrics and silage wraps in agriculture applications.

They are as used as weed barriers, mulch fabrics and silage wraps in agriculture applications. Packaging – Carry bags, wrappers, envelopes commonly made from spun bond nonwovens. Their high strength and moisture resistance makes them suitable for these applications.

A diverse range of industries

As you can see, the versatility of spun bond nonwovens has led to their widespread use across a diverse range of industries. Their unique combination of mechanical strength, uniformity, permeability and low cost manufacturing gives them distinct advantages over other nonwoven and woven materials. With continuous technological improvements, new spun bond processes and usage of specialty polymers, we can expect even more innovative applications to emerge for these nonwoven fabrics in the future. They are certainly playing an important role in our daily lives through their use in countless hygiene, medical, industrial and packaging products.

Nonwoven fabrics are engineered fabrics made from synthetic fibers bonded together by chemical, mechanical, heat or solvent treatment. They are mainly used for filtration, hygiene products, medical applications, geotextiles and more. Meltblown nonwovens are a type of nonwoven fabric made by extruding thermoplastic fibers that are blown by high-velocity air onto a conveyor belt. The fibers bond and entangle as they land to form a fine, breathable fabric. Meltblowing is one of the most effective technologies for creating top-quality filters. This blog post will provide an overview of meltblown machine nonwoven fabric and its manufacturing process and applications.

How Meltblown Nonwovens Are Made?

Meltblown nonwovens are made through a specialized extrusion process called meltblowing. Polymer resins, usually polypropylene or polyethylene, are first melted and then extruded through tiny nozzles surrounded by high velocity hot air. As the hot air blows onto the molten polymers coming out of the nozzles, it stretches them into micro and nanofibers, allowing the fibers to get extremely thin in diameter, typically ranging from 1 to 10 microns. The fibers are then laid randomly onto a moving belt to form a nonwoven web. The entanglement of the ultrafine fibers as they land and bond to each other results in a very dense barrier fabric.

The meltblowing process allows control over final fabric properties such as fiber diameter, basis weight, and pore size based on factors like the polymer viscosity, air flow rate, distance between the nozzle and the collecting belt, as well as belt speed. This high level of control allows the creation of tailored nonwovens for specific applications. Meltblown fabrics are known for their barrier properties, fine fiber filtration efficiency, absorption characteristics and high surface area.

Key Components Of A Meltblown Machine

The main components of a meltblown machine include:

• Extruder: Melts the polymer resin and pumps it at a constant rate to the meltblowing die.
• Meltblowing die: Having rows of tiny holes called nozzles or capillaries that the molten polymer extrudes through. High velocity hot air blows onto the polymer streams exiting the nozzles and attenuates them into microfibers.
• Web forming chamber: Where the fiber streams are blown by the high velocity air onto a perforated rotating drum or conveyor belt moving in front of the die. The fibers accumulate on the belt into a meltblown web.
• Bonding method: Can be thermal point bonding with heated calender rolls or hydroentanglement jets that need pressure for fibers to entangle. Provides fabric strength.
• Winding system: Winds the consolidated meltblown fabric into rolls.

Advantages Of Meltblown Nonwovens

Some key advantages of meltblown nonwovens include:

• Very fine fiber diameters, down to submicron sizes. This gives a large surface area.
• High level of filtration efficiency. The microfibers intercept tiny particles and prevent them from passing through the fabric. Meltblowns can remove particles down to 2-3 microns and some even smaller.
• Breathable barrier properties, allowing gas and water vapors to permeate while providing a barrier for liquids. Useful for surgical gowns.
• Good absorbency due to the small interfiber spaces that can hold liquid. Often used as oil absorbents.
• Lightweight fabric with a soft draping handfeel. Does not irritate skin.
• Versatile, cost-effective and can be tailored to many different applications.
• Continuous production method makes high volumes possible.

Applications Of Meltblown Nonwovens

Some of the main uses of meltblown nonwovens are:

• Surgical face masks – Protect against infectious particles thanks to the excellent filtration ability of meltblowns. Most masks have a meltblown middle layer sandwiched between spunbond or other nonwovens providing strength.
• Air filters – Remove airborne particles from air streams in applications like vacuum cleaners, air conditioners and automotives. The submicron diameter fibers catch fine particles.
• Industrial workwear – Apparel like coveralls, gowns and sleeves used where hazardous particle protection is needed.
• Oil absorbents – Can soak up oils and hydrocarbon liquids from spills on land or water. The fabric’s oleophilic but hydrophobic nature is ideal for oil clean-up.
• Battery separators – Prevent direct contact between the anode and cathode in batteries while allowing ion transfer. The microporous structure provides electrical insulation.
• Wipes – For medical, industrial, cosmetic and other wipes where low-linting and softness are desired.
• Hygiene products – Used in diapers to provide a breathable, leakage barrier. Also in feminine hygiene items.

Nonwoven fabrics have become indispensable materials in a wide range of industries from hygiene and medical to construction and agriculture. One of the most versatile and commonly used nonwoven fabrics is spunbond polypropylene, known as PP spunbond. This material offers beneficial properties that make it a top choice for many applications. In this blog post, we’ll explore what exactly PP spunbond fabric is, how it’s produced, its performance properties, and the many uses for this nonwoven textile.

What Is Spunbond Polypropylene Fabric?

Spunbond polypropylene, or PP spunbond, is a nonwoven fabric made from polypropylene filaments. To produce it, polypropylene plastic pellets are first melted and extruded through tiny nozzles to form continuous filaments. As the filaments are extruded, they are rapidly stretched and elongated using high-velocity air jets. The filaments are then deposited on a moving belt in a random pattern to form a web. The web is thermally bonded using heat and pressure to fuse the overlapping filaments. This creates a strong, breathable fabric without any knitting or weaving.

The spunbond process results in a fabric with excellent strength, flexibility, and stability. Polypropylene itself is known for its durability, hydrophobicity, chemical resistance, and affordability. These attributes make PP spunbond a versatile material for many different applications.

Key Properties And Performance

PP spunbond nonwoven fabric offers a unique balance of properties:

• High tensile strength and tear resistance
• Breathable yet dense structure
• Excellent liquid barrier abilities
• Soft, flexible handfeel
• Good dimensional stability
• Resistance to humidity, mildew, and many chemicals
• Stays intact when stretched or strained
• Can be sterilized for medical uses
• Cost-effective and efficient to produce

The combination of strength, flexibility, and barrier properties makes PP spunbond suitable for a wide range of uses from hygiene products to industrial filtration. It can be engineered during production to have different weights, thicknesses, and performance characteristics.

Common Applications And Uses

Thanks to its favorable properties, polypropylene spunbond finds many applications:

• Disposable hygiene products – The fabric is used in diapers, sanitary pads, adult incontinence products, and hospital underpads. It keeps moisture away from the skin while allowing breathability.
• Medical fabrics – PP spunbond is used for surgical drapes, gowns, sterile packaging, and masking fabrics. It provides a bacteria barrier while remaining breathable.
• Geotextiles – When used for geotextile fabrics, PP spunbond provides excellent filtration, separation, drainage, and stabilization for roads, dams, canals, and other structures.
• Crop coverings – Spunbond polypropylene makes ideal crop coverings to protect plants from frost, wind, hail, birds, and insects due to its strength, opacity, and drainage.
• Furniture and bedding – Within furniture upholstery and mattress covers, PP spunbond offers a soft, breathable surface that holds up well to continuous use.
• Industrial workwear – The fabric is often used for protective clothing, aprons, and gloves due to its durable, hydrophobic, and breathable nature.
• Air and liquid filtration – PP spunbond’s dense structure filters out particles, droplets, and aerosols while allowing gases and liquids to pass through.

Conclusion Of Polypropylene Spunbond Nonwoven Fabric

With its unique production process and balance of properties, polypropylene spunbond nonwoven fabric serves a wide array of industries. It delivers strength, breathability, liquid repellency, and bacterial resistance with efficiency and cost-effectiveness. As nonwovens continue to gain market share across textile and technical applications, expect versatile PP spunbond to maintain its prominence for years to come.

A spunmelt nonwoven machine as used to produce various nonwoven materials including hygiene products, filtration media, and apparel fabrics. A common type of spunmelt machine is the polypropylene (PP) single-step sandwich meltblown spunmelt machine (SSMMS), which produces combined spunbond and meltblown webs in a single process. This PP SSMMS spunmelt machine offer high performance and yield for nonwoven manufacturers.

Introduce about PP SSMMS spunmelt machine

In a PP SSMMS spunmelt machine, polymer granules like polypropylene are first fed into a hopper and conveyed into the extruder. Inside the extruder, the polymers are melted and forced through a spinneret. The spinneret contains many tiny holes that create continuous polymer filaments as they exit.

As the molten filaments exit the spinneret, they are drawn vertically by a godet system where they are cooled by air. As the filaments harden, they become thinner and more stable, forming continuous fibers. These fibers then pass through the sandwiching area where hot air to form the meltblown layer is injected in between the spunbond layers.

The sandwiching area is a key feature of single-step SSMMS machines. In this section, the spunbond fibers pass between an upper and lower conveyor, with hot air blown from nozzles in between to create the meltblown layer. The amount of hot air, air pressure and nozzle arrangement determine the basis weight and thickness of the meltblown layer.

After sandwiching, the combined web consisting of spunbond and meltblown layers passes over a roller bed and into an oven for annealing and further cooling. The annealed composite web is then wound onto a take-up roller.

The key advantages of PP SSMMS machines include:

• High production rates – Up to 800 kg/hr of nonwoven material can be produced.
• Width flexibility – Web widths from 1.2 to 4.5 meters are possible, depending on the machine.
• Better control of layer ratios – The combination ratio of spunbond to meltblown layers
  can be precisely set from 20/80 to 80/20.
• Uniform web weights – Precise control of spinning, air flow and winding ensure consistent
  basis weights within +/- 3%.
• Superior quality and performance – The integrated process produces composite webs with
  bonding between layers for improved strength, barrier properties and filtration.

PP SSMMS machines also require less space and capital investment compared to traditional two-step systems that produce spunbond and meltblown layers separately and laminate them later. However, the single-step process does involve more complex control of the sandwiching section.

When selecting a PP SSMMS spunmelt machine, manufacturers should consider factors like web width, production rate, layer ratio flexibility, Energy efficiency, technical support and maintenance requirements. Machine suppliers often offer custom configurations and options to meet the specific application needs for products like diapers, wipes, filters and geotextiles.

Nonwoven fabrics are essential materials used in everything from diapers and medical fabrics to geotextiles and automotive applications. As demand rises, manufacturers are seeking out the latest technology in spunbond nonwoven fabric make machine to improve productivity and product performance.

What Is Spunbond Fabric And How Is it Made?

Spunbond or spunbonded fabrics are a popular type of nonwoven made from extruded, spun filaments bonded together to form strong, durable webs. The spunbond process starts with polymer resin pellets fed into an extruder where they are melted at high temperatures into a polymer solution.

The molten polymer is pumped into a spinneret block featuring hundreds of tiny nozzles that spin the polymer into fine continuous filaments as they are extruded. Cooling air blows onto the filaments as they are spun to solidify them.

The filaments are drawn onto a conveyor belt where they are deposited in random orientations to form a web. This web then passes through heated calender rollers that bond the intersecting fibers together through a combination of mechanical entanglement and thermal fusion.

The final spunbond fabric is wound into rolls to be further finished or converted into end products. Variations in polymers, production parameters, and bonding methods yield spunbond materials with unique properties for different applications.

Benefits Of Advanced Spunbond Nonwoven Machines

Spunbond nonwoven manufacturing has come a long way from early belt-based processes developed in the 1970s. Today’s state-of-the-art spunbond lines offer major advantages like:

• Higher speeds and throughput – Modern spunbond lines can run at speeds exceeding 1000m/min to maximize production.
• Superior web uniformity – Advanced metering pumps, spinnerets, and other features improve weight and thickness consistency.
• Finer filaments – Filaments down to 1 micron in diameter produce smoother, finer fabrics.
• Composite fabrics – Some systems can produce SMS, SSMMS, and other composite structures.
• Better energy efficiency – Optimized process controls reduce power consumption.
• Reduced downtime – Equipment designed for quick changeovers, maintenance, and expanded production windows.
• Improved end product quality – Tighter process control, versatile polymer options, and better web bonding lead to higher performing fabrics.
• Smart monitoring – IoT integration and data analytics help identify process optimization opportunities.

These capabilities allow manufacturers to gain a competitive edge with their spunbond nonwovens.

Key Spunbond Line Components And Technologies

Some noteworthy components and technologies available on state-of-the-art spunbond lines include:

• High-speed, high-output extruders – Gala underwater pelletizers offer precision polymer melting and delivery.
• Advanced metering pumps – Accurate polymer filtering, pressure regulation, and flow control.
• High hole density spinnerets – Up to 8000 holes produce more filaments and finer webs.
• Optimized quenching – Strategically placed cooling systems solidify and draw filaments consistently.
• Web handling systems – Vacuum devices and electrostatic pinning smoothly convey the spunbond web.
• Multibeam thermal bonders – Computer-controlled bonding achieves precise caliper, tensile strength, and softness.
• Surface treatment – Corona, plasma, or flame treatment allows better printing, lamination, and liquid absorption.
• Quality control systems – Auto gauging, sampling, and defect detection ensure consistent output.
• Remote monitoring and control – IoT systems enable data-driven optimization and predictive maintenance.
• With such features, manufacturers can create high-performing spunbond materials to meet any specifications.

Partner With A Leading Spunbond Line Manufacturer

As a premier maker of turnkey spunbond, meltblown, and composites lines for over 20 years, XYZ Machinery is an ideal partner for your next spunbond project. Our extensive expertise in engineering tailored spunbond solutions includes:

• 3D modeling of custom configurations
• Precision manufacturing of equipment
• Turnkey line installation and optimization
• Local after-sales service and support
• Operator training and maintenance

Whether you need a complete greenfield installation, upgraded line components, or a debottlenecking of your existing process, XYZ Machinery has the capabilities and experience to deliver maximum performance and value.

Meltblown nonwoven fabric machines use high-speed hot air to produce light, porous fabrics made of extremely fine fibers. These machines have many applications in industries like healthcare, filtration and apparel.

What Is A Meltblown Nonwoven Machine?

A meltblown nonwoven machine is a special type of extrusion equipment used to manufacture meltblown machine nonwoven fabric. It works by extruding thermoplastic resins through fine nozzles and blowing heated air at high velocities onto the extruded filaments.

As the filaments exit the nozzles, the hot air attenuates and entangles them, forming a web of fine fibers that is collected on a conveyor. The resulting nonwoven fabric is lightweight with very small fiber diameters.

Meltblown machines typically have three main components:

• Extruder – Melts the thermoplastic resin pellets or granules and extrudes it through nozzles.
• Distribution plate with nozzles – The melt is forced through thousands of tiny nozzles to form the filaments.
• Hot air system – High-velocity air heats up as it passes over a chamber and is then blown onto the extruded filaments.

The hot air stretches and attensuates the filaments as they exit the nozzles, forming fine fibers that quickly mix and entangle on a rotating forming surface. The nonwoven web is then conveyed to a winding unit.

Key Parameters of Meltblown Machines

• Nozzle holes – The number and diameter of nozzle holes determine the fineness of the fibers and fabric basis weight.
• Air temperature – Higher air temperatures produce finer fibers but can damage the resin.
• Airflow – Higher air velocity produces finer fibers but consumes more energy.
• Resin type – Different resins like PP, PE and PET are used based on fabric properties required.
• Production speed – Higher speeds allow more fabric production but affect fiber fineness.
• Width – Machine width determines the size of the nonwoven fabric produced.

Machine manufacturers optimize these parameters to produce meltblown fabrics with the properties required for specific end uses. Wider machines with more nozzle holes can produce higher output.

Applications of Meltblown Nonwoven Fabrics

Attributes of meltblown nonwoven fabrics that enable various applications:

• The fine fiber diameter produces high porosity and surface area.
• They are light due to weighing between 10 to 300 gsm.
• The fabrics exhibit good barrier properties against microbes, liquids and particles.

Common uses of meltblown nonwoven fabrics:

• Healthcare: They are used in surgical drapes, gowns, masks and swabs.
• Filtration: They serve as filter media for air, liquids and other applications.
• Apparel: They are used as interlinings and insulation layers in clothing.
• Wipes: They are used to make wet wipes for personal and industrial cleaning.
• Acoustics: They are used as sound insulation in buildings and vehicles.

Nonwoven fabrics have become an essential part of our daily lives, from the surgical masks we wear to protect ourselves from COVID-19 to the filters in our air purifiers. These fabrics are versatile, durable, and easy to manufacture. One of the critical components in the production of nonwoven fabrics is the meltblown machine, which converts thermoplastic materials into meltblown fibers.

With the proper equipment, meltblown nonwoven machinery can produce consistent fabrics for a variety of filters, barrier materials, medical & hygiene products and more.

The Key Machine Types Used For Meltblown Nonwoven Fabric Production Are:

• Extruders:
  Polymer resin is melted and extruded through tiny spinneret dies containing several hundred tiny holes to produce many molten polymer threads simultaneously.
• Airblowing Systems:
  High-velocity hot air is blown against the extruded polymer threads, which attenuates and draws the threads into fine fibers between 5 and 15 micrometers in diameter. This blown air also deposits the fibers in a random fashion onto a conveyor belt.
• Conveyor Systems:
  The conveyor belt below the fiber-forming zone collects the randomly deposited meltblown fibers and moves them forward for further processing.
• Bonder Units:
  The loose nonwoven web passes between heated calendar rolls that bond fiber intersections to give the fabric integrity and strength. Additional web treatments may also be applied.
• Winder:
  The finished meltblown nonwoven web is wound into large rolls for storage, transport and further converting.

Meltblown Machinery Precisely Controls The Meltblowing Process

Overall, meltblown machinery precisely controls the meltblowing process to produce extremely fine fiber webs with small pore sizes, high surface areas and good barrier properties. Key features of modern meltblown lines include:

• Advanced polymer extrusion systems
• High-velocity airblowing technology
• Improved fiber deposition control
• Integrated bonding and treatment options
• Precision unwinding, winding and tension systems

Examples Of Industries That Use Meltblown Machine Nonwoven Fabrics

1. Meltblown fabrics are widely used as filter media for air, liquid and gas filtration in industrial, commercial and residential applications. They are commonly seen in HVAC filters, face masks, and air purifiers.
2. Meltblown nonwovens are a key component of many medical and hygiene products like surgical masks, respirator masks, diapers, and sanitary napkins due to their barrier properties and ability to trap fine particles.
3. Meltblown fabrics are utilized as interior or exterior layers in multiple packaging applications to prevent moisture ingress, particle contamination and gas permeation.

Nonwoven fabrics are made using specialized nonwoven manufacturing equipment and machines that process fibers into webs and fabrics without weaving or knitting. This help explain the types of machines used to manufacture nonwoven fabrics. Let me know if you would like me to expand the post with more details or modify any part of the content.

Key Machine Types Used In Nonwoven Fabric Production Include:

• Fiber preparation equipment:
  Machines like cutters, breakers, and cards prepare fibers and align them for the nonwoven process. This initial fiber processing is crucial for downstream web formation.
• Web formation equipment:
  Different machines are utilized to lay down fibers and form a nonwoven web. Card webbers use parallelized fibers while airlay and spunlaid processes deposit fibers using air or melt extrusion.
• Web bonding equipment:
  Bonded nonwoven fabrics require machines that consolidate the web and bind the fibers together. Common options are needlepunching, thermal bonding, and chemical bonding units.
• Cloth making machines
  They have been transforming raw fibers into woven textiles for centuries. From handlooms to modern computerized textile mills
• Finishing equipment:
  Finishing nonwoven fabrics involves machines like calenders and coaters that apply treatments to improve properties like absorbency, permeability and appearance.

Thus, Nonwoven Manufacturing Involves:

• Fiber preparation machinery
• Web formation machinery like carding, airlaying, spunlays
• Web bonding machinery for mechanical, thermal or chemical bonding
• Finishing machinery to enhance properties

Nonwoven Machines Can Produce A Wide Range Of Fabric

Together, these nonwoven machines can produce a wide range of fabrics for various industrial and consumer applications through:

• Carded processes
• Airlaying processes
• Specialty processes like electrospinning and nanofiber production
• Spunlaid processes like spunbond and meltblown

Examples Of Consumer Products That Use Nonwoven Fabrics

1. Nonwoven fabrics like spunbond and meltblown polypropylene are commonly used as the substrate for wet wipes and cosmetic wipes.
2. Nonwoven fabrics are used in a variety of medical products like gowns, drapes, dressings and bandages due to their breathability, strength and affordability.
3. Nonwoven backings and substrates made from staple fibers like polypropylene and polyester are used in carpets, area rugs and artificial turf.

PP (polypropylene) spunbond nonwoven fabric is made using specialized nonwoven machinery that extrudes filaments of polypropylene resin and forms them into a nonwoven web. The resulting fabrics have many desirable properties for various applications. With the proper machinery and technology, manufacturers can reliably produce PP spunbond nonwoven fabrics with consistent properties at high throughputs for various end applications.

PP Spunbond Nonwoven Fabric Properties

• Chemical resistant – Resists degradation from most acids, alkalis and solvents
• Hydrophobic – repels water and resists moisture
• Abrasion resistant – Maintains strength after repeated abrasion and rubbing
• Elastic – Some PP spunbond grades exhibit elasticity
• Heat sealable – Can be heat sealed or welded for bonding and packaging

These properties make PP spunbond fabrics useful for filters, wipes, geotextiles, hygiene products and more.

Top Nonwoven Machinery Manufacturers

Many companies manufacture the specialized nonwoven machinery required to produce PP spunbond nonwoven fabric:

• Reifenhauser – Produces Reicofil 4 spunbond lines capable of producing up to 6,500 kg/h of PP spunbond
• Oerlikon Neumag – Manufactures Cirrus spunbond equipment with output rates up to 12,000 kg/h
• CNH – Specializes in PP spunbond lines for hygiene applications with outputs up to 8,000 kg/h
• Jacob Holm – Produces Autefa spunbond systems up to 6,500 kg/h for custom nonwoven solutions
• Sinononwoven – Manufactures equipment for PP spunbond applications with outputs up to 9,000 kg/h

These leading nonwoven machinery manufacturers offer advanced technologies for reliable production of high quality PP spunbond nonwoven fabrics. Key features of their equipment include:

• High precision filament extrusion
• Advanced thermal drawing systems
• Accurate filament laydown and web formation
• Integrated bonding and calendering units
• Precise speed and tension controls