Fiberglass Mat Tissue - e-glass fiberglass woven roving, 300g, 1040mm

Fiberglass Mat Tissue - e-glass fiberglass woven roving, 300g, 1040mm

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Loading Port:: China Main Port

Payment Terms:: TT or LC

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Brief Introduction:

E-glass woven roving Fabric is bidirectional fabric made by 4.5 microns to 17 microns of E-Glass fiber,its high strength ,high modulus ,acid and alkali resistance , high temperature resistance and other properties. often used in protection ,heat insulation ,thermal insulation ,support field . After surface treatment ,it can be made into perfect composite materials . now it is widely used in hand lay up and robot processes to manufacture boats ,vessels ,plane and automotive parts , furniture and sports facilities.

Characteristics of Fiberglass Woven Roving

Woven Roving is a high –performance reinforcement widely used in hand lay-up and machanical production

1) Good moldability & drapability

2) High strength

3) Excellent rollout characteristics

4) Fast wet -out

Specifications:

PRODUCT CODE	WOVEN WEIGHT (OZ/YD)	WOVEN WEIGHT (GSM)	STANDARD WIDTH (INCHES)	ROLL LENGTH (M)	THICKNESS (MM)	LOI %	Moisture Content (%)
CT-PWR24	0.86	24	50	50M	0.04	≤0.80	≤0.20
CT-PWR48	1.71	48	50	50M	0.06	≤0.80	≤0.20
CT-PWR100	2.95	100	50	50M	0.11	≤0.80	≤0.20
CT-PWR135	3.99	138	50	50M	0.14	≤0.80	≤0.20
CT-PWR200	5.9	200	50	50M	0.18	≤0.80	≤0.20
CT-PWR290	8.56	290	50	50M	0.23	≤0.80	≤0.20

Main features:

1.warp and weft rovings aligned in a parallel,flat manner and uniform tension.

2.densely aligned fiber,providing high dimensional stablity and easy handing.

3.good moldability,fast and complete resin wet-out ,enabling high productivity

4.good transparency and high strength of the composite products

Remark:Woven rovings are available in the width range of 50-3000mm and the weight range of 200-1600g/m2

Packaging:

It’s wound into a paper tube( inside diameter about 90mm, outside diameter about 265mm).the mat roll is wrapped with plastic film,and then packed into cardboard box or wrapped with paper.the rolls can be stacked horizontally.the rolls can be palletized or loaded into container.

FAQ:

1.What is the delivery time ?

15days after receiving the deposit

2.Are you a trading company or factory.

We are factory,and we have more than 10 years of experience.

Q: How does the roll diameter of fiberglass mat tissue affect its handling?: The handling of fiberglass mat tissue can be significantly impacted by the diameter of the roll. When the roll diameter is larger, the roll becomes heavier and bulkier, which poses a greater challenge for handling and maneuvering. This is especially important when the fiberglass mat tissue needs to be transported or installed manually. Furthermore, lifting and moving a larger roll diameter requires more physical effort, putting strain on those handling it. Additionally, larger roll diameters occupy more space, making storage and transportation more complicated. On the other hand, a smaller roll diameter makes the fiberglass mat tissue easier to handle due to its lighter and more compact nature. This is particularly advantageous in situations that involve frequent movement and installation, such as construction sites or manufacturing facilities. Moreover, a smaller roll diameter allows for more efficient storage and transportation as it takes up less space and can be easily stacked. This optimization of logistics helps minimize the costs associated with storage and transportation. In summary, the roll diameter of fiberglass mat tissue directly impacts its handling characteristics. Larger diameters make handling more challenging, while smaller diameters provide easier handling and improved storage efficiency.

Q: Can fiberglass mat tissue be used for insulation in shopping malls?: Yes, fiberglass mat tissue can be used for insulation in shopping malls.

Q: Is fiberglass mat tissue suitable for insulation in educational facilities?: Indeed, fiberglass mat tissue proves to be a suitable option for insulation in educational facilities. Owing to its exceptional thermal insulation properties, fiberglass mat tissue is widely employed in insulation applications. This lightweight and cost-effective material effectively insulates buildings, including educational facilities, from heat loss or gain. Moreover, fiberglass mat tissue is renowned for its fire-resistant characteristics – a vital consideration in any structure, particularly in educational facilities where the safety of students and staff takes precedence. Furthermore, the installation of fiberglass mat tissue is effortless, and it does not necessitate extensive upkeep, thus rendering it a convenient selection for insulation in educational facilities.

Q: What is the thermal resistance of fiberglass mat tissue?: The thermal resistance of fiberglass mat tissue typically ranges from 0.3 to 0.6 square meters Kelvin per watt (m²K/W), depending on the specific composition and thickness of the material.

Q: What are the potential environmental impacts of using fiberglass mat tissue?: The potential environmental impacts of using fiberglass mat tissue can vary depending on several factors. One potential impact is the extraction and production of the raw materials needed to manufacture fiberglass. The process of obtaining glass fibers involves mining and processing silica sand, which can lead to habitat destruction, soil erosion, and water pollution. Additionally, the production of glass fibers requires a significant amount of energy, which often comes from non-renewable fossil fuels, contributing to greenhouse gas emissions and climate change. Another environmental impact of using fiberglass mat tissue is the release of hazardous chemicals during the manufacturing process. Fiberglass production involves the use of resins, binders, and other chemicals that can be harmful to human health and the environment. These chemicals may be released into the air, water, or soil, potentially contaminating nearby ecosystems and posing a risk to wildlife and human populations. Furthermore, the disposal of fiberglass mat tissue at the end of its life cycle can also have environmental implications. Fiberglass is not easily biodegradable, and proper disposal methods are crucial to prevent it from ending up in landfills or being incinerated, both of which can release harmful substances into the environment. Recycling fiberglass can be challenging due to its complex composition, leading to a significant portion of it being discarded improperly. Lastly, the use of fiberglass mat tissue in certain applications, such as insulation or construction materials, can contribute to energy consumption and greenhouse gas emissions. For example, fiberglass insulation can require additional energy for manufacturing, transportation, and installation compared to alternative insulation materials like cellulose or mineral wool. In conclusion, the potential environmental impacts of using fiberglass mat tissue are diverse and range from habitat destruction and pollution during raw material extraction to the release of hazardous chemicals during manufacturing and difficulties in disposal and recycling. It is essential for manufacturers and consumers to consider these impacts and explore alternative materials and production processes that minimize harm to the environment.

Q: What is the chemical resistance of fiberglass mat tissue?: The excellent chemical resistance of fiberglass mat tissue stems from the inherent properties of the fiberglass material. Typically, the mat tissue consists of woven or bound glass fibers, forming a protective barrier against a diverse array of chemicals. The glass fibers themselves possess a high resistance to corrosion, rendering fiberglass mat tissue suitable for use in environments where chemical exposure is a concern. The chemical resistance of fiberglass mat tissue can vary based on the specific resin or binder used in the manufacturing process. Various types of resins may offer superior resistance to certain chemicals, while others may be more susceptible to degradation. It is crucial to consider the specific chemicals that will come into contact with the fiberglass mat tissue and choose a compatible resin or binder accordingly. In general, fiberglass mat tissue is renowned for its ability to withstand acids, alkalis, solvents, and other commonly found industrial and commercial chemicals. It can endure exposure to a wide range of corrosive substances, making it a versatile and long-lasting material for various applications. Nevertheless, it is important to note that prolonged exposure to highly concentrated or aggressive chemicals may eventually result in some degradation or deterioration of the fiberglass mat tissue. Therefore, it is imperative to consult the manufacturer's specifications and guidelines to ensure proper chemical compatibility and performance in specific environments.

Q: How does the width and length of fiberglass mat tissue affect its application?: The width and length of fiberglass mat tissue can greatly affect its application in various ways. Firstly, the width of the mat tissue determines the coverage area and ease of installation. A wider mat tissue can cover a larger surface area, reducing the number of individual sheets required for a project. This can save time and effort during installation, especially for large-scale applications. Additionally, the width of the mat tissue can affect the overall strength and durability of the finished product. A wider mat tissue provides more reinforcement, making it suitable for applications that require greater strength and stability, such as in the construction of structural components or high-stress areas. On the other hand, the length of the mat tissue impacts the convenience and flexibility during application. Longer rolls of mat tissue allow for continuous installation without the need for frequent seams or joints. This is particularly advantageous when working on large projects, as it minimizes potential weak points and enhances the overall integrity of the fiberglass application. Moreover, the length of the mat tissue also affects the ease of handling and transportation. Longer rolls can be more challenging to maneuver and transport, especially in confined spaces or through narrow doorways. Therefore, the length should be considered based on the accessibility and logistics of the specific application site. In summary, the width and length of fiberglass mat tissue play crucial roles in its application. The width determines the coverage area, strength, and durability, while the length influences the convenience, flexibility, and handling during installation. Considering these factors allows for a more efficient and successful application of fiberglass mat tissue in various industries and projects.

Q: Is fiberglass mat tissue resistant to corrosion?: Yes, fiberglass mat tissue is resistant to corrosion.

Q: What is the weight of fiberglass mat tissue per square meter?: The weight per square meter of fiberglass mat tissue may differ based on the particular product and manufacturer. Typically, the weight of fiberglass mat tissues can range from 100 grams per square meter (gsm) to 900 gsm. Nevertheless, it should be noted that in certain instances, the weight may also be expressed in ounces per square yard (oz/yd²). To ascertain the precise weight of a particular fiberglass mat tissue, it is advisable to consult the manufacturer's provided product specifications.

Q: What are the different methods of bonding fiberglass mat tissue to other materials?: There are several methods of bonding fiberglass mat tissue to other materials, each with its own advantages and considerations. Some of the common methods include: 1. Mechanical Bonding: This method involves physically interlocking the fiberglass mat tissue with the other material. It can be achieved through techniques such as stitching, stapling, or using mechanical fasteners like screws or nails. Mechanical bonding provides a strong and durable connection, but it may require additional hardware and can be time-consuming. 2. Adhesive Bonding: Adhesive bonding is a popular method that uses adhesives or glue to join the fiberglass mat tissue with the other material. This method offers flexibility, as there are various types of adhesives available for different applications. It is important to choose an adhesive that is compatible with both the fiberglass mat tissue and the other material. Proper surface preparation and application techniques are crucial for achieving a strong bond. 3. Resin Infusion: Resin infusion is a process where a liquid resin is infused into the fiberglass mat tissue and other materials, creating a strong bond when cured. This method is commonly used in manufacturing composite products, as it allows for a seamless and uniform bond. Vacuum bagging or resin infusion techniques are typically employed to ensure proper resin distribution and consolidation. 4. Thermal Bonding: Thermal bonding involves the use of heat to bond the fiberglass mat tissue to another material. This method is particularly suitable for thermoplastic materials, as they can be softened and fused together with heat. Techniques such as heat welding or ultrasonic welding are commonly used for thermal bonding. It is important to ensure that the heat does not damage or degrade the fiberglass mat tissue during the bonding process. 5. Fusion Bonding: Fusion bonding is a method where the fiberglass mat tissue and the other material are heated to a molten state and then brought into contact to form a bond. This technique is commonly used in the manufacturing of thermosetting plastics or joining thermoplastic materials. Fusion bonding can provide a strong and seamless bond, but it requires careful control of temperature and pressure to ensure proper bonding without causing damage. In summary, the different methods of bonding fiberglass mat tissue to other materials include mechanical bonding, adhesive bonding, resin infusion, thermal bonding, and fusion bonding. The choice of bonding method depends on factors such as the materials being bonded, the desired strength and durability, and the specific application requirements.

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