• Glass Fiber Textile Reinforced Microporous Insulation Board for Ladle Heat Insulation System 1
  • Glass Fiber Textile Reinforced Microporous Insulation Board for Ladle Heat Insulation System 2
  • Glass Fiber Textile Reinforced Microporous Insulation Board for Ladle Heat Insulation System 3
  • Glass Fiber Textile Reinforced Microporous Insulation Board for Ladle Heat Insulation System 4
  • Glass Fiber Textile Reinforced Microporous Insulation Board for Ladle Heat Insulation System 5
Glass Fiber Textile Reinforced Microporous Insulation Board for Ladle Heat Insulation

Glass Fiber Textile Reinforced Microporous Insulation Board for Ladle Heat Insulation

Ref Price:
$125.00 - 165.00 / m² get latest price
Loading Port:
Tianjin
Payment Terms:
TT or LC
Min Order Qty:
100 m²
Supply Capability:
10000 m²/month

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Quick Details for Micropore Insulation Board ,Heat Insulation materials

Type:

Other Heat Insulation Materials

Place of Origin:

China (Mainland)

Brand Name:


Model Number:

M5100

service temperature, max.:

1150 C

Thermal conductivity, @800 C:

0.035 W/m.K

typical density:

280 kgs/m3






Packaging & Delivery

Packaging Details:wooden cases
Delivery Detail:10 days

 

Product Description

  M5100 Panel is rigid finishing from microporous technology , with opcified blend of filament reinforced fumed silica, which provides a superb thermal performance. 

It is an ideal back-up insulation for various industry where the high temperature is needed, with a long time exposure of 1150 °C at highest. 

M5100 Panel ---Various coverings :  Naked Panels, Aluminium Foil covering, E-class Fibre Cloth Covering, Fibre Paper covering.

M5100 Panel—Four Grades available : 850 , 1000, 1100, 1200

Properties & Advantages
  Extremely low thermal conductivity
  High thermal stability
  High compressive strength
  No harmful respirable fibres
  Free of organic binders
  Environmentally friendly 
  Resistant to most chemicals
  Non combustible
  Easy to handle

Typical Applications
  Back-up insulation in industrial furnaces
  Fuel cells (SOFC)
  Thermal Batteries
  Aluminium industry ( launders,Smelter.etc. )
  Glass & ceramics industry
  Petrochemical industry (cracking furnace, reformer)
  Black box & VDR (Voyage Data Recorder) 
  Data loggers

Working & Processing
M5100 can be shaped both manually and with stationary wood processing machinery. They can be cut, sawn, drilled and punched. The boards can be fixed in place with glue or by mechanical means such as anchors, pins and clips.

 

Technical Data for for Micropore Insulation Board ,Heat Insulation materials

 

DescriptionMISSION STD Panel M5100
Classification Temperature0C85010001100/1100S1200/1200S
Long time Exposure8509501050/10001150/1100
Nominal Density[kg/m3]260-280260-280400-450450-550
Typical Density280280450500
Compression Strength[MPa]0.320.320.720.8
@10% deformation (ASTM C-165)
Thermal Conductivity




200 0CW/m.K0.0220.0220.024    0.0280.027    0.029
400 0CW/m.K0.0250.0250.028    0.0320.032    0.035
600 0CW/m.K0.0280.0280.032    0.0380.037    0.042
800 0CW/m.K0.0330.0330.035    0.0450.043    0.046
Specific Heat Capacity




200 0C[KJ/Kg K]0.850.860.860.89
400 0C[KJ/Kg K]0.950.960.970.99
600 0C[KJ/Kg K]1.021.031.041.05
800 0C[KJ/Kg K]1.071.081.081.08
Linear Shrinkage




12h full soak @ 850  0C%≤2≤0.5≤0.1    ≤0.1≤0.1     ≤0.1
24h full soak @ 950  0C- - -≤2.5≤0.5    ≤0.1≤0.5     ≤0.5
24h full soak @ 1050  0C- - -- - -≤2.5     - - -≤2.5     ≤2.5
24h full soak @ 1150  0C- - -- - -- - -          - - -≤3.5      - - -






 

Microporous Insulation Board, Heat Insulation materials for Ladle

Microporous Insulation Board, Heat Insulation materials for Ladle

Microporous Insulation Board, Heat Insulation materials for Ladle

 

Standard Dimension:

1000(900)×600(500)×5-20mm

 

We can also manufacture the special dimensions as customers need.

Q1:Are you a manufacture or trader?

A:Factory+trade(mainly factories,at the same time,we operates other related products).


Q2:Can we visit your factory?

A:Sure,welcome at any time,seeing is believing.


Q3:What's the MOQ of trial order?

A:No limit,We can offer the best suggestions and solutions according to your condition.


Q4:Which payment terms can you accept?

A:T/T,L/C,Western Union,Moneygram,Paypal are available for us.


Q5:After an order is confirmed,when to deliver?

A:15-25days after deposit.


Q6:Is your company accept customization?

A:We have own factory and excellent technical team,and we accept OEM service.


Q7:How about your company's certification?

A:ISO9001 and Test Report,also we could apply other necessary certification.


Q8:How to slove the quality problems?

A:If the products are not confirmed to customer samples or have quality problems,our compay will be responsible to make compensation for it.


Q9:Can you offers samples?

A:Of coures,samples are free but freight paid by the buyers.


Q10:What is the service life of your bricks?

A:The service life of different bricks is unlike.It also depends on your using condition and method.


Thanks for your coming in,if there is any question,I will be glad to help you.

 


Q: How do glass fiber textiles compare to natural fibers in terms of sustainability?
Glass fiber textiles are generally considered more sustainable than natural fibers in certain aspects. Glass fibers are made from abundant and recyclable materials such as silica sand, which reduces the dependence on natural resources. They have a longer lifespan and are resistant to mold, insects, and fire, reducing the need for replacements. Glass fiber textiles also have a lower carbon footprint during production, as they require less water and energy compared to natural fiber processing. However, glass fibers are not biodegradable, whereas natural fibers can decompose naturally. Therefore, while glass fibers offer advantages in sustainability, their long-term environmental impact should be carefully considered.
Q: What are some common applications of glass fiber textiles?
Some common applications of glass fiber textiles include reinforcement materials in composites, insulation for buildings and pipelines, protective clothing and equipment, filtration systems, and electrical insulation.
Q: Are glass fiber textiles resistant to pilling?
Glass fiber textiles are generally not prone to pilling. Pilling occurs when loose fibers on the surface of a fabric become tangled and form small balls or clusters. However, glass fiber textiles have a smooth and durable surface that prevents the formation of pills. This is because glass fibers are inorganic and do not have the same tendency to fray or break as natural or synthetic fibers. Additionally, glass fibers are often woven tightly, which further reduces the likelihood of pilling. Overall, glass fiber textiles are known for their excellent resistance to pilling, making them a popular choice for applications where durability and longevity are important factors.
Q: Can glass fiber textiles be used in extreme temperatures?
Yes, glass fiber textiles can be used in extreme temperatures. Glass fibers have high melting points and excellent thermal stability, allowing them to withstand both high and low temperatures without losing their structural integrity. Therefore, they are suitable for applications in extreme temperature environments.
Q: What are the advantages of using glass fiber textiles over other materials?
Glass fiber textiles have numerous advantages compared to other materials. Firstly, their exceptional strength and durability are well-known. Glass fibers possess inherent properties, such as high tensile strength and resistance to breaking or stretching, that make them suitable for various applications. This strength enables glass fiber textiles to endure heavy loads and harsh environments, ensuring their reliability and longevity. Secondly, glass fiber textiles exhibit excellent heat resistance. Unlike many other materials, they can withstand high temperatures without compromising their structural integrity. This characteristic makes them suitable for applications requiring heat insulation or fire resistance, such as the construction of fireproof clothing, insulation materials, or protective gear. Another advantage of glass fiber textiles is their outstanding chemical resistance. They do not react with most chemicals, acids, and alkalis. This makes them ideal for industries where exposure to corrosive substances is common, such as the chemical or petrochemical industry. Moreover, their resistance to moisture and mold growth makes them suitable for applications in damp or humid environments. Furthermore, glass fiber textiles are lightweight and have a high strength-to-weight ratio. This feature makes them an appealing choice in industries where weight reduction is crucial, such as aerospace or automotive. The lightweight nature of glass fiber textiles also facilitates easy handling and installation, which reduces labor costs and enhances efficiency. Lastly, glass fiber textiles offer high versatility and can be easily customized to meet specific requirements. They can be woven, knitted, or braided into various forms, allowing flexibility in design and application. Additionally, glass fiber textiles can be coated or combined with other materials to enhance specific properties, such as adding abrasion resistance or improving electrical conductivity. In conclusion, the advantages of glass fiber textiles over other materials encompass exceptional strength and durability, excellent heat and chemical resistance, lightweight nature, and versatility. These properties establish glass fiber textiles as the preferred choice in a wide range of industries, including construction, automotive, aerospace, and chemical manufacturing.
Q: How do glass fiber textiles affect the drapability of fabrics?
The drapability of fabrics can be significantly influenced by glass fiber textiles, also known as fiberglass textiles. When glass fibers are added to a fabric, it can increase its stiffness and rigidity, preventing it from naturally draping. This is because glass fibers, compared to commonly used natural or synthetic fibers in textiles, have a high tensile strength and are relatively inflexible. When glass fiber textiles are integrated into fabrics, they create a network of interlocking fibers that provide structure and stability to the material. This can be advantageous in certain applications, such as industrial or technical textiles, where a more rigid fabric is desired. However, in garments or home furnishings where drape and fluidity are important, the presence of glass fibers can be a disadvantage. The stiffness caused by glass fiber textiles can limit the movement and flow of the fabric, resulting in a less natural drape. Fabrics containing glass fibers may not hang as smoothly or gracefully as those without, and may appear more rigid when worn or used for drapery. Furthermore, the presence of glass fibers can alter the feel and texture of the fabric, potentially making it less comfortable against the skin. It is important to note that the impact of glass fiber textiles on drapability can vary depending on the concentration and distribution of the fibers within the fabric. Higher concentrations of glass fibers or a more tightly woven or knitted structure generally have a more significant effect on drapability. Overall, although glass fiber textiles can offer advantages in terms of strength and stability, they can negatively affect the drapability of fabrics. Designers and manufacturers should carefully consider the intended application and desired characteristics of a fabric before deciding whether to incorporate glass fibers or explore other alternatives.
Q: Are glass fiber textiles resistant to static cling?
Yes, glass fiber textiles are generally resistant to static cling. The unique properties of glass fiber materials, such as their low conductivity and high tensile strength, make them less susceptible to static electricity buildup. Additionally, glass fibers do not easily generate static charges when rubbed against other surfaces, reducing the likelihood of static cling. This resistance to static cling makes glass fiber textiles a popular choice for various applications, including clothing, upholstery, and industrial fabrics.
Q: How do glass fiber textiles resist insects?
Glass fiber textiles resist insects due to their composition and physical characteristics. Glass fibers are made from molten glass that is spun into thin strands. These strands are then woven or knitted together to form a fabric. Insects are unable to chew or damage glass fibers because they are not organic materials like cotton or wool. Unlike natural fibers, glass fibers are inorganic and do not provide a food source for insects. This lack of nutritional value makes glass fiber textiles unattractive to insects as they cannot feed on them. Furthermore, the smooth and slippery surface of glass fibers makes it difficult for insects to cling onto or make their way through the fabric. The tightly woven structure of glass fiber textiles also acts as a barrier, preventing insects from penetrating or burrowing into the material. In addition, glass fiber textiles are often treated with chemical insecticides or repellents during the manufacturing process. These treatments make the fabric even more resistant to insects by repelling or killing them upon contact. Overall, glass fiber textiles provide a durable and insect-resistant option for various applications, such as window screens, outdoor furniture, and protective clothing. They offer a combination of non-nutritious composition, smooth surface, tight weave, and sometimes chemical treatments that effectively deter insects and keep them at bay.
Q: Can glass fiber textiles be used for making sports apparel or activewear?
Glass fiber textiles, also known as fiberglass, possess the capability to be utilized in the production of sports apparel or activewear. They are lightweight and possess an exceptional strength-to-weight ratio, rendering them suitable for athletic wear. These textiles offer attributes like durability, flexibility, and moisture-wicking properties, which are crucial for engaging in sports and active pursuits. Moreover, they provide thermal insulation, making them appropriate for use in various weather conditions. Nevertheless, it is essential to acknowledge that glass fiber textiles may not be as comfortable or breathable as other commonly utilized materials in sports apparel, such as synthetic fibers or natural fabrics. Additionally, glass fibers can be abrasive and have the potential to cause skin irritation if they are not properly treated or blended with other materials. Therefore, when utilizing glass fiber textiles for the production of sports apparel or activewear, it is crucial to consider the specific requirements and preferences of athletes or individuals who will be using the products.
Q: Can glass fiber textiles be used for reinforcement in plastic bottles?
Yes, glass fiber textiles can indeed be used for reinforcement in plastic bottles. Glass fiber textiles, also known as fiberglass, are lightweight, strong, and durable materials that are commonly used in various industries, including automotive, aerospace, and construction. When incorporated into plastic bottles, glass fiber textiles can enhance their structural integrity and reduce the risk of deformation or breakage. The glass fibers add strength and stiffness to the plastic matrix, making the bottles more resistant to impact, pressure, and temperature changes. Additionally, glass fiber reinforcement can help to reduce the amount of plastic required in the bottle's construction, making it a more sustainable option. However, it is important to note that the addition of glass fibers may affect the transparency of the plastic bottle, as the fibers can cause a slight opacity. Therefore, if transparency is a crucial factor, alternative reinforcement materials such as carbon fiber or aramid fibers may be preferred.

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