Fiberglass Biaxial Fabric
- Ref Price:
- Loading Port:
- China Main Port
- Payment Terms:
- TT or LC
- Min Order Qty:
- 2Ton kg
- Supply Capability:
- 100Ton Per Month kg/month
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- Quality Product
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- Timely Delivery
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Application of Fiberglass Biaxial Fabric
Model: 100-200KN
Tensile Strength(KN/M): warp direction: aa100
Elongation: aa4%
Mesh Size: 25.4*25.4mm
Introduction of Fiberglass Biaxial Fabric
fiberglass biaxial fabric have excellent designable Character and great combination character with mat.
fiberglass geogrid is a kind of excellent geosynthetics for the reinforcement of road surface and basement.
Biaxial and multiaxial fabric consists of two or more layers roving fiberglass at different orientations (0, 90, +45, -45), which are stitched together by fine polymer yarn. Standard configurations include biaxial (0,90), (+45,-45), traxial(0,+45,-45) or (90, +45, -45) and multiaxial (0,90,+45,-45).Because of its excellent designable ability and great combination character with mat perfectly, it is omnipotent with any complex FRP/Composites products needing reinforcement. For instance, wind turbine blade,shipbuilding industry, auto industry, sports apparatus, medical apparatus, the furniture, etc.
Specification of Fiberglass Biaxial Fabric
STYLE | MASS | MASS | LENGTH | WIDTHcm | WEIGHT | RESIN COMPATIBILITY |
EB450 (0/90) | 450 | 13.3 | 110 | 100 | 49.5 | UP or Epoxy resin |
EB600(0/90) | 600 | 17.7 | 80 | 100 | 48.0 | UP or Epoxy resin |
EB700(0/90) | 700 | 20.6 | 70 | 100 | 49.0 | UP or Epoxy resin |
EB800(0/90) | 800 | 23.6 | 60 | 100 | 48.0 | UP or Epoxy resin |
EB950(0/90) | 950 | 26.5 | 50 | 100 | 47.5 | UP or Epoxy resin |
EB1000(0/90) | 1000 | 29.5 | 50 | 100 | 50.0 | UP or Epoxy resin |
EB1200(0/90) | 1200 | 35.4 | 40 | 100 | 48 | UP or Epoxy resin |
EU400(45/-45) | 400 | 11.8 | 100 | 127 | 50.8 | UP or Epoxy resin |
EU600(45/-45) | 600 | 17.7 | 65 | 127 | 49.5 | UP or Epoxy resin |
ETW750(45/-45/90) | 750 | 22.1 | 50 | 127 | 47.6 | UP or Epoxy resin |
ETL800(0/45/-45) | 800 | 23.6 | 50 | 127 | 50.8 | UP or Epoxy resin |
EMU900(0/45/90/-45) | 900 | 26.5 | 50 | 127 | 57.2 | UP or Epoxy resin |
Note of Fiberglass Biaxial Fabric
Normally the width is 127cm,it can be cut to any width according to the customers requirements. We can also combinate the chopped strand mat.
Packing of Fiberglass Biaxial Fabric:
Each roll covered by polyethylene plastic bag,then placed into cardboard box. Cardboard box size: 1000mm×260mm×260mm,also can be set on pallet, Each pallet vertical stack 16 cardboard boxes which sizing: 1120mm×1120mm×1150mm.
Storage of Fiberglass Biaxial Fabric:
Product shall be placed under dryness condition and shall not be opened the covering membrane until applying.
- Q:
- Fiberglass fabric is renowned for its exceptional ability to insulate against electricity. As a non-conductive material, it hinders the flow of electrical current. This quality renders it suitable for diverse electrical purposes that necessitate insulation. The fabric can endure elevated temperatures without compromising its insulating capabilities, making it perfect for deployment in electrical insulation blankets, tape, sleeves, and other protective coverings. Moreover, fiberglass fabric possesses a remarkable dielectric strength, denoting its capacity to withstand elevated voltages without succumbing to breakdown. This attribute is vital in scenarios where the material encounters high electric fields, such as in transformers, motors, and generators. Furthermore, fiberglass fabric exhibits low moisture absorption, enabling it to maintain its electrical insulation properties even in humid conditions. Moisture can impact the dielectric strength of materials, but the fabric's resistance to water absorption ensures its reliability as an insulation material. In conclusion, fiberglass fabric possesses excellent electrical properties, including high electrical insulation, superior dielectric strength, and low moisture absorption. Consequently, it is the preferred choice for a wide array of electrical applications.
- Q:
- Due to its unique properties and advantages, fiberglass fabric is widely utilized in the production of sports equipment. One of its primary uses in this industry is for reinforcement purposes. By layering and combining the fabric with resin, a lightweight yet sturdy composite material is created. In the manufacturing of sports equipment like tennis rackets, golf clubs, and hockey sticks, fiberglass fabric is employed to enhance strength and stiffness. This involves layering and bonding the fabric with other materials, such as carbon fiber, to form a composite structure with excellent flexural strength and impact resistance. As a result, athletes can achieve greater power and control during their performance. Furthermore, fiberglass fabric is also incorporated into the production of protective gear for various sports. Helmets, shin guards, and body armor often feature this fabric due to its ability to absorb and distribute impact energy. With its high tensile strength and tear resistance, fiberglass fabric ensures the safety of athletes during high-contact sports. Moreover, fiberglass fabric is utilized in the manufacturing of sports equipment that requires waterproof or weather-resistant properties. For instance, sailboards, canoes, and kayaks incorporate the fabric to provide a protective layer against water penetration. This enhances the equipment's durability and longevity, enabling athletes to use them in different weather conditions without compromising performance. In conclusion, fiberglass fabric plays a vital role in the production of sports equipment by providing reinforcement, enhancing strength and durability, ensuring athlete safety, and enabling weather resistance. Its versatile properties make it an essential component in a wide range of sports gear, contributing to better performance, protection, and overall enjoyment for athletes worldwide.
- Q:
- Yes, fiberglass fabric can be used for making insulation boards. Fiberglass fabric is commonly used in the manufacturing of insulation boards due to its excellent thermal properties and fire resistance. The fabric is made from fine strands of glass, which are woven together to form a strong and flexible material. This fabric can be layered or compressed to achieve the desired thickness and R-value, which is a measure of the insulation's ability to resist heat flow. In addition, fiberglass fabric is also resistant to moisture and does not promote the growth of mold or mildew. Overall, fiberglass fabric is a popular choice for insulation boards due to its durability, thermal performance, and safety features.
- Q:
- Due to its exceptional properties and advantages, fiberglass fabric finds extensive use in the manufacture of wind turbine blades. Typically woven from lightweight and durable fiberglass filaments, the fabric serves as the primary structural material for these blades. To form a strong and rigid composite material known as fiberglass-reinforced polymer (FRP), the fabric is layered and impregnated with a resin, such as epoxy. This FRP composite enables the blades to withstand the forces and stresses experienced during operation in the wind. Incorporating fiberglass fabric into wind turbine blades involves several steps. Firstly, a mold is created in the shape of the blade using a positive model. Then, layers of fiberglass fabric are meticulously placed onto the mold, with each layer oriented in a specific direction to optimize the mechanical properties of the blade. The fabric layers are thoroughly impregnated with resin, ensuring a solid bond throughout the structure. This process may be repeated multiple times to increase the blade's thickness and strength. The advantages of using fiberglass fabric in wind turbine blades are plentiful. Firstly, its lightweight nature allows for the construction of longer and larger blades, enhancing energy capture efficiency from the wind. Additionally, the fabric is highly resistant to corrosion, making it ideal for outdoor applications where the blades face harsh environmental conditions. Moreover, the inherent flexibility of fiberglass fabric enables the blades to bend and twist in response to changing wind conditions, reducing unnecessary stress and improving overall performance. The fabric also exhibits resistance to fatigue, ensuring its structural integrity even under repeated loading cycles. In conclusion, fiberglass fabric plays a vital role in the production of wind turbine blades, providing the necessary strength, durability, and flexibility for efficient and reliable energy generation. Its lightweight nature, corrosion resistance, and fatigue resistance make it an ideal material choice for constructing blades capable of withstanding the demanding operating conditions of wind turbines.
- Q:
- The production of fiberglass fabric involves a multi-step manufacturing process that utilizes glass fibers and a binding agent. The process commences by creating glass fibers through the melting of silica sand, limestone, and soda ash at high temperatures. These molten glass fibers are subsequently pushed through small openings in a device known as a bushing to generate long, continuous strands of glass fibers. Following this, a binding agent, typically a thermosetting resin like epoxy or polyester, is applied to the glass fibers. This binding agent serves the purpose of holding the fibers together and providing strength and durability to the final fabric. The coated fibers are then organized into a particular pattern or weave, such as plain weave or twill weave, to achieve the desired fabric structure. Once the fibers are arranged, the fabric undergoes a curing process involving the application of heat and pressure. This process solidifies and sets the binding agent, rendering it hard and rigid. Curing can be accomplished using various methods, depending on the specific fabric requirements, such as hot pressing, autoclaving, or oven curing. After the curing process, the fabric undergoes additional treatments, including cutting, finishing, and coating, depending on its intended application. These treatments serve to enhance the fabric's properties, such as strength, fire resistance, or waterproofing capabilities. In conclusion, the production of fiberglass fabric entails melting silica sand and other raw materials to create glass fibers, coating these fibers with a binding agent, arranging them into a specific pattern, and curing the fabric through heat and pressure. The final result is a versatile and durable material that is utilized in diverse industries, including aerospace, automotive, construction, and marine.
- Q:
- The typical tensile strength of fiberglass fabrics can vary, but it is generally around 300-600 MPa (megapascals).
- Q:
- Fiberglass fabric exhibits remarkable resistance to the chemicals employed in wastewater treatment. Its outstanding chemical resistance has earned fiberglass a reputation as an optimal material for scenarios where exposure to diverse chemicals is probable. It has the capacity to endure a broad spectrum of corrosive substances, such as acids, alkalis, and solvents, commonly encountered in wastewater treatment processes. Due to the non-reactive quality of fiberglass fabric, it remains unaffected and undamaged when exposed to these chemicals, making it a dependable choice for implementation in wastewater treatment facilities. Additionally, fiberglass fabric also offers resistance to UV radiation, moisture, and fluctuations in temperature, which further bolsters its durability and suitability for such environments.
- Q:
- Generally, fiberglass fabrics exhibit resistance to UV degradation. The fabric is manufactured by weaving fine strands of glass together, resulting in a durable and robust material. The glass fibers possess a natural ability to fend off the detrimental impact of UV radiation. Consequently, fiberglass fabrics can endure prolonged exposure to sunlight without experiencing significant deterioration. Nevertheless, it is crucial to acknowledge that the coatings or finishes employed on the fabric might not possess the same level of UV resistance as the fiberglass itself. Consequently, it is advisable to verify the particular product specifications or seek guidance from the manufacturer to ascertain the UV resistance level of a specific fiberglass fabric.
- Q:
- Using fiberglass fabric in composites offers numerous benefits. Firstly, its high strength-to-weight ratio makes composites incredibly strong yet lightweight, which is advantageous in industries like aerospace and automotive where weight reduction is crucial for improved fuel efficiency and overall performance. Secondly, fiberglass fabric possesses excellent mechanical properties, such as high tensile strength and stiffness, making it ideal for applications requiring structural integrity and load-bearing capabilities. Whether it's in building construction, marine vessels, or sporting equipment, fiberglass composites provide the necessary strength and durability. Additionally, fiberglass fabric's corrosion resistance sets it apart from metals as it does not rust or corrode when exposed to moisture, chemicals, or saltwater. This makes it a preferred material for applications that demand long-term durability and resistance to environmental factors. Moreover, fiberglass fabric's versatility and ease of molding into complex shapes allow for the production of intricate and customized parts that may be challenging to achieve with other materials. Its flexibility enables the creation of composite structures that are not only strong but also aesthetically pleasing. Lastly, fiberglass fabric proves to be a cost-effective alternative to commonly used composite materials like carbon fiber. It is widely available and relatively inexpensive, making it a popular choice across various industries. Its affordability, coupled with its outstanding performance characteristics, establishes fiberglass fabric as the preferred material for many composite applications. In conclusion, the advantages of fiberglass fabric in composites encompass its high strength-to-weight ratio, excellent mechanical properties, corrosion resistance, versatility, and cost-effectiveness. These qualities make fiberglass composites a dependable and efficient solution for a wide range of industries and applications.
- Q:
- Fiberglass fabric, known for its outstanding thermal properties and low thermal conductivity, finds application in insulation for cryogenic systems. Its ability to minimize heat transfer and sustain low temperatures makes it an effective option. Furthermore, it exhibits resilience against extreme temperatures and remains impervious to degradation or loss of insulation properties under cryogenic conditions. Consequently, fiberglass fabric emerges as a suitable candidate to insulate cryogenic systems, guaranteeing their efficient and safe operation.
1. Manufacturer Overview |
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Location | Shanghai,China |
Year Established | 2006 |
Annual Output Value | Above US$20 Million |
Main Markets | Mid East;Western Europe;North America:South American |
Company Certifications |
2. Manufacturer Certificates |
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a) Certification Name | |
Range | |
Reference | |
Validity Period |
3. Manufacturer Capability |
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a)Trade Capacity | |
Nearest Port | Shanghai |
Export Percentage | 70% |
No.of Employees in Trade Department | 200 People |
Language Spoken: | English;Chinese |
b)Factory Information | |
Factory Size: | Above 400,000 square meters |
No. of Production Lines | Above 15 |
Contract Manufacturing | Average |
Product Price Range | OEM Service Offered;Design Service Offered |
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