Carbon Fiber 6K-1200TEX

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Loading Port:
China Main Port
Payment Terms:
TT or LC
Min Order Qty:
2Ton m.t.
Supply Capability:
1000Ton m.t./month
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Specifications of Carbon Fiber 6K-1200TEX

1. Material: carbonized polyacrylonitrile fiber

2. Filament number:3k

3. Fiber type: T700

4. Tensile strength: 360kgf/mm2

 

General Data of Carbon Fiber Fabric

Tow Size

Tow Count/CM

Weave Style

WidthRange

(mm)

Std. Width

(mm)

Thickness

(mm)

FAW

(g/sq.m)

FAW

(oz/sq.yd)

3K

4 x 4

Plain

10~1500

1000

0.16

160

4.72

3K

4 x 4

2x2 Twill

10~1500

1000

0.16

160

4.72

3K

5 x 4

Plain

10~1500

1000

0.18

180

5.31

3K

5 x 4

2x2 Twill

10~1500

1000

0.18

180

5.31

3K

5 x 5

Plain

10~1500

1000

0.2

200

5.90

3K

5 x 5

2x2 Twill

10~1500

1000

0.2

200

5.90

3K

5 x 6

Plain

10~1500

1000

0.22

220

6.49

3K

5 x 6

2x2 Twill

10~1500

1000

0.22

220

6.49

3K

6 x 6

Plain

10~1500

1000

0.24

240

7.08

3K

6 x 6

2x2 Twill

10~1500

1000

0.24

240

7.08

3K

8 x 8

Plain

10~1500

1000

0.32

320

9.44

3K

8 x 8

2x2 Twill

10~1500

1000

0.32

320

9.44

3K

8 x 8

8H Satin

10~1500

1000

0.32

320

9.44

 

Storage of Carbon Fiber 6K-1200TEX

It is recommended that the carbon fiber fabric are stored in a cool and dry environment. Recommended temperature range of storage is between 10 ~ 30 degree and relative humidity between 50 ~ 75%.The carbon fiber fabric should remain in the packaging until just prior to use.

 

Packaging & Delivery of Carbon Fiber 6K-1200TEX

Product is manufactured in form of a roll wound on a paper tube and then packed in a plastic film and placed within a cardboard carton. Rolls can be loaded into a container directly or on pallets.

Packaging Detail: carton

Delivery Detail: within 20 days

 Carbon Fiber 6K-1200TEX

 

 Carbon Fiber 6K-1200TEX

Q:How do you use carbon fourteen to measure the age?
One is obvious a small amount of sample, only 1 ~ 5 mg samples can be, such as a piece of fabric, bone chips, toner trace of ancient ceramics in the surface or pores can be measured; while the conventional carbon - 14 dating rules 1 to 5 grams of samples differ by 3 orders of magnitude. The two is high sensitivity. The sensitivity of 10-15 to 10-16 isotope ratio measurement; while the conventional carbon - 14 dating rules with a difference of 5 to 7 orders of magnitude. Three is a short measurement time, measurement of modern carbon to reach 1% accuracy, only 10 to 20 minutes; while the conventional carbon - 14 dating is 12 ~ 20 hours. It is due to carbon - 14 accelerator mass spectrometry dating method has the advantage, since its inception, has been paid attention to by archaeologists, paleontologists and geologists, and is widely used. It can be said that within 50000 years of cultural relics on the determination of samples, carbon - 14 accelerator mass spectrometry dating method is determined the accuracy of a maximum of 1. carbon. 14 is a radioactive isotope of carbon, was found in 1940. It is produced by cosmic rays collide with a nitrogen atom in the air, which has a half-life of about 5730 years, as the decay of beta decay, 14 atoms into carbon nitrogen atoms.
Q:
Carbon-based polymers are synthesized through a process called polymerization, which involves the bonding of monomers (smaller units) together to form long chains or networks. This can be achieved through various methods such as addition polymerization, condensation polymerization, or ring-opening polymerization, depending on the type of polymer desired.
Q:
Carbon offsetting in the automotive industry refers to the practice of compensating for the greenhouse gas emissions produced by vehicles through various methods. As automobiles are a significant contributor to carbon dioxide emissions, carbon offsetting aims to neutralize or reduce the overall impact on the environment. There are several ways in which carbon offsetting can be achieved in the automotive industry. One common method is through the purchase of carbon credits or offsets. These credits represent a reduction or removal of carbon dioxide emissions elsewhere, such as in renewable energy projects or reforestation initiatives. By buying these credits, automotive companies or individuals can offset the emissions produced by their vehicles, effectively balancing out their carbon footprint. Another approach to carbon offsetting involves investing in clean technologies and practices within the automotive sector. This can include the development and implementation of more fuel-efficient engines, hybrid or electric vehicles, or the use of alternative fuels. By reducing the amount of carbon dioxide emitted per kilometer driven, automotive companies can offset their overall emissions and contribute to a greener transportation industry. Additionally, companies in the automotive industry can engage in carbon offsetting by promoting sustainable practices throughout their supply chain. This includes working with suppliers to reduce emissions from the production of vehicle components or implementing energy-efficient manufacturing processes. By addressing emissions throughout the entire lifecycle of a vehicle, from production to disposal, carbon offsetting becomes a comprehensive approach to mitigating the environmental impact of the automotive industry. In conclusion, carbon offsetting in the automotive industry refers to the strategies and actions taken to compensate for the greenhouse gas emissions produced by vehicles. Whether through purchasing carbon credits, investing in clean technologies, or promoting sustainable practices, carbon offsetting aims to reduce the overall impact of automobiles on the environment and contribute to a more sustainable future.
Q:
Carbon is used in the production of paints and coatings in several ways. Firstly, carbon black is a common pigment used in paints and coatings to provide color and opacity. It is made by burning natural gas or oil in a controlled environment, resulting in fine particles of carbon. Carbon black enhances the color intensity and durability of the paint or coating, as well as improves its resistance to UV light and weathering. Additionally, carbon-based compounds, such as resins and polymers, are used as binders in the formulation of paints and coatings. These binders help hold the pigment particles together and adhere them to the surface being painted or coated. Carbon-based binders are known for their excellent adhesion properties, which contribute to the durability and longevity of the paint or coating. Furthermore, carbon nanotubes are increasingly being used in the production of high-performance paints and coatings. These nanotubes, which are cylindrical carbon structures, have exceptional mechanical, thermal, and electrical properties. They can be incorporated into paint or coating formulations to enhance their strength, conductivity, and resistance to corrosion or abrasion. In summary, carbon plays a crucial role in the production of paints and coatings. It is used as a pigment to provide color and opacity, as binders to hold the pigment particles together, and as carbon nanotubes to enhance the performance and functionality of the final product.
Q:
Ocean acidification is caused by the absorption of carbon dioxide (CO2) released into the atmosphere by the oceans. This absorption leads to an increase in the acidity of the water, as the CO2 reacts with seawater to form carbonic acid. The carbonic acid then releases hydrogen ions, which further contribute to the acidity of the water. The increased acidity of the oceans has harmful consequences for marine life and ecosystems. Many marine organisms, including coral reefs, shellfish, and phytoplankton, rely on calcium carbonate to create their shells and skeletons. However, in more acidic waters, the availability of calcium carbonate decreases, making it difficult for these organisms to maintain their structures. This can result in weakened shells, stunted growth, and even death. Ocean acidification also affects the reproductive and physiological processes of marine organisms. For instance, it can interfere with the development of fish larvae and disrupt the ability of certain species to detect predators or locate food. Moreover, the increased acidity can harm the organisms that rely on these species for sustenance, thus causing a ripple effect throughout the food chain. Additionally, ocean acidification can have a profound impact on the overall health and functioning of marine ecosystems. Coral reefs, often referred to as the "rainforests of the sea," serve as habitats for a wide range of marine species. However, as the acidity of the oceans rises, coral reefs become more susceptible to bleaching and ultimately dying off. This loss of coral reefs would result in catastrophic consequences for the biodiversity and productivity of marine ecosystems. To summarize, the rise in atmospheric carbon dioxide levels leads to the absorption of CO2 by the oceans, resulting in ocean acidification. This process disturbs the pH balance of the oceans, making them more acidic. The increased acidity has detrimental effects on marine life, including the ability of organisms to build their structures, reproduce, and function within their ecosystems. It is imperative to address the issue of carbon emissions in order to mitigate the negative impacts of carbon on the pH balance of oceans and safeguard the health and integrity of marine ecosystems.
Q:
Activated carbon is produced by heating carbon-rich materials, such as wood, coal, or coconut shells, at high temperatures in the absence of oxygen. This process, known as activation, creates a highly porous material with a large surface area, which gives activated carbon its adsorptive properties.
Q:
Carbon can have both positive and negative impacts on the stability of desert ecosystems. On one hand, carbon is an essential element for all living organisms and is a key component of organic matter. It plays a crucial role in the processes of photosynthesis, respiration, and decomposition, which are vital for the survival and growth of plants and other organisms in deserts. Carbon dioxide, a form of carbon, is taken in by plants during photosynthesis to produce glucose and oxygen, providing the necessary energy for their growth. This promotes the stability of desert ecosystems by supporting primary productivity and the food web. However, the excessive release of carbon into the atmosphere, primarily through human activities such as burning fossil fuels and deforestation, has led to an increase in greenhouse gases, including carbon dioxide. This leads to global warming and climate change, which have significant negative impacts on desert ecosystems. Rising temperatures can alter the delicate balance of desert ecosystems, affecting the distribution and abundance of plant and animal species. Some plants may struggle to adapt to the changing climate, while others may benefit, leading to shifts in species composition and potential loss of biodiversity. Moreover, increased carbon dioxide levels can also affect the water availability in desert ecosystems. Elevated carbon dioxide levels can result in increased water-use efficiency in plants, allowing them to conserve water. This can be beneficial in water-limited environments like deserts, as it helps plants to survive under drought conditions. However, this can also lead to changes in water dynamics, impacting the availability of water resources for other organisms in the ecosystem. In summary, carbon is essential for the stability of desert ecosystems as it supports primary productivity and the functioning of food webs. However, the excessive release of carbon into the atmosphere contributes to climate change, which negatively impacts desert ecosystems by altering species distribution, reducing biodiversity, and affecting water availability. It is crucial to mitigate carbon emissions and promote sustainable practices to ensure the long-term stability and resilience of desert ecosystems.
Q:
Carbon capture and storage (CCS) is a technology that involves capturing carbon dioxide (CO2) emissions from industrial processes and storing them underground, preventing their release into the atmosphere. Implementing CCS involves several key steps. Firstly, the capture process involves capturing CO2 emissions from power plants, factories, and other industrial sources. This can be achieved through various methods, such as pre-combustion capture, post-combustion capture, and oxy-fuel combustion. Pre-combustion capture involves converting fossil fuels into a mixture of hydrogen and CO2, with the latter separated and stored. Post-combustion capture involves removing CO2 from the flue gases after combustion. Oxy-fuel combustion involves burning fossil fuels in pure oxygen, resulting in a flue gas that is mostly CO2. Once captured, the second step is transportation. The captured CO2 needs to be transported from the capture site to a storage site. This transportation can be done through pipelines, ships, or trucks, depending on the distance and volume of CO2. Pipelines are the most common method, especially for large-scale projects, as they are cost-effective and efficient. The third step is storage, which involves injecting the captured CO2 deep underground into geological formations for long-term storage. The most suitable storage sites are depleted oil and gas fields, saline aquifers, and deep coal seams. These sites have the capacity to securely store large amounts of CO2 for hundreds or even thousands of years. To ensure the safety and effectiveness of CCS, monitoring and verification play a crucial role. Continuous monitoring is required to detect any potential leaks or seismic activities that may compromise the integrity of the storage site. Verification activities involve assessing the long-term storage of CO2 and ensuring compliance with regulations and standards. Implementing CCS also requires policy support and financial incentives. Governments can provide regulatory frameworks, tax incentives, and funding to encourage the adoption of CCS technologies. International cooperation and collaboration are also important, as CCS can be a global solution to mitigate climate change. In conclusion, implementing carbon capture and storage involves capturing CO2 emissions, transporting them to a storage site, injecting them underground, and monitoring the storage process. It requires various technologies, infrastructure, and policy support to achieve widespread adoption. By effectively implementing CCS, we can significantly reduce greenhouse gas emissions and combat climate change.
Q:
Carbon emissions have significant impacts on urban environments. One of the most notable effects is air pollution. The release of carbon dioxide and other greenhouse gases from vehicles, factories, and power plants contributes to the formation of smog and harmful particulate matter in cities. This pollution poses serious health risks to residents, particularly those with respiratory conditions, and can lead to increased hospital admissions and premature deaths. Furthermore, carbon emissions contribute to climate change, which has wide-ranging consequences for urban areas. Rising temperatures and changing weather patterns can intensify heatwaves, leading to heat-related illnesses and deaths. Increased frequency and severity of extreme weather events, such as hurricanes and floods, can cause significant infrastructure damage and disrupt essential services like water supply and transportation. Urban areas also face the threat of rising sea levels due to carbon emissions. Coastal cities are particularly vulnerable to flooding and erosion as the melting of polar ice caps and thermal expansion of seawater continue. This can result in the loss of valuable land, displacement of populations, and damage to critical infrastructure, including buildings, roads, and sewage systems. Carbon emissions also contribute to the urban heat island effect, wherein cities experience higher temperatures compared to surrounding rural areas. This is due to the absorption and retention of heat by concrete, asphalt, and other urban materials. The urban heat island effect can exacerbate the health risks associated with heatwaves and increase energy demands for cooling, further contributing to carbon emissions. Finally, carbon emissions have economic impacts on urban environments. The costs of mitigating and adapting to the effects of climate change, such as implementing climate-resilient infrastructure and disaster response measures, can be significant. Additionally, the health consequences of air pollution and extreme weather events can lead to increased healthcare costs and productivity losses. To mitigate these impacts, efforts should be made to reduce carbon emissions through transitioning to cleaner energy sources, promoting sustainable transportation options, and implementing energy-efficient practices in buildings. Urban planning and design should also prioritize green spaces, tree planting, and the use of reflective and permeable materials to combat the urban heat island effect. By addressing carbon emissions in urban environments, we can create healthier, more resilient cities for both current and future generations.
Q:
Carbon is used in the production of batteries as it serves as a key component in the construction of electrodes. It is typically used in various forms such as graphite or carbon black, which provide a conductive surface for the flow of electrons during the charging and discharging process. The carbon-based electrodes help enhance the battery's overall performance and increase its energy storage capacity.
We are a modernized enterprise .

1. Manufacturer Overview

Location Shanghai, China
Year Established 1995
Annual Output Value Above US$ 20,000
Main Markets Mid East; Eastern Europe; North America
Company Certifications ISO 9002:2000

2. Manufacturer Certificates

a) Certification Name  
Range  
Reference  
Validity Period  

3. Manufacturer Capability

a)Trade Capacity  
Nearest Port Shanghai
Export Percentage 20%
No.of Employees in Trade Department 100 People
Language Spoken: Chinese
b)Factory Information  
Factory Size: Above 100,000 square meters
No. of Production Lines Above 5
Contract Manufacturing OEM Service Offered; Design Service Offered
Product Price Range Average

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