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

Q:How does carbon impact the stability of tundra ecosystems?: The stability of tundra ecosystems is impacted by carbon in several ways. To begin with, carbon is essential for the formation and development of tundra soils. When plants in the tundra grow and undergo photosynthesis, they absorb carbon dioxide from the atmosphere and convert it into organic matter. This organic matter eventually decomposes, adding carbon to the soil and creating a layer of permafrost rich in organic material. This layer of permafrost helps to stabilize the ecosystem. Furthermore, carbon in the form of vegetation acts as a protective layer against erosion in tundra ecosystems. The dense cover of mosses, lichens, and shrubs holds the soil in place, preventing it from being washed away by wind or water. This stabilization is crucial in the tundra, where plant growth and soil development are limited by cold temperatures and short growing seasons. Moreover, the stability of tundra ecosystems is influenced by the release of greenhouse gases, such as carbon dioxide and methane, from the melting permafrost. As global temperatures rise, the permafrost thaws and releases stored carbon into the atmosphere. This process creates a feedback loop, as the released carbon contributes to further warming, which accelerates permafrost thawing. This feedback loop has the potential to disrupt tundra ecosystems by altering the balance of plant and animal life, disrupting nutrient cycling, and increasing the risk of wildfires. In conclusion, carbon plays a vital role in maintaining the stability of tundra ecosystems by contributing to soil formation, preventing erosion, and regulating greenhouse gas emissions. It is crucial to understand and manage carbon dynamics in the tundra in order to preserve these unique and delicate ecosystems in the face of climate change.

Q:What is carbon offsetting in the fashion industry?: Carbon offsetting in the fashion industry refers to the practice of compensating for the greenhouse gas emissions produced during the production, transportation, and disposal of clothing and accessories. This process involves investing in projects or activities that reduce or remove an equivalent amount of carbon dioxide (CO2) from the atmosphere to offset the emissions generated by the industry. Fashion is known for its significant contribution to environmental degradation, with the production of textiles, manufacturing processes, and transportation all contributing to carbon emissions. Carbon offsetting provides a way for fashion brands and companies to take responsibility for their carbon footprint and work towards reducing their environmental impact. There are various ways in which carbon offsetting is implemented in the fashion industry. One common method is through the support of renewable energy projects, such as wind farms or solar power plants, which generate clean energy and reduce the reliance on fossil fuels. By investing in these projects, fashion brands can offset a portion of their emissions by supporting the production of renewable energy that displaces the need for fossil fuel-based energy sources. Another approach to carbon offsetting is through reforestation or afforestation projects. Trees play a crucial role in absorbing CO2 from the atmosphere, so planting trees or conserving existing forests can help offset emissions. Fashion companies can invest in projects that protect existing forests from deforestation or support initiatives that plant trees in areas affected by deforestation or land degradation. Moreover, some fashion brands opt for carbon offsetting by investing in projects that capture and store carbon dioxide from the atmosphere, such as carbon capture and storage (CCS) technologies. These projects focus on removing CO2 emissions from industrial processes, preventing them from being released into the atmosphere. It is important to note that carbon offsetting should not be seen as a complete solution to the fashion industry's environmental impact. While it can help mitigate some of the emissions, it is crucial for brands to prioritize reducing their carbon footprint through sustainable practices, including using eco-friendly materials, improving energy efficiency, and implementing circular fashion initiatives. Overall, carbon offsetting in the fashion industry is a strategy to compensate for the greenhouse gas emissions generated throughout the supply chain. By investing in projects that reduce or remove an equivalent amount of CO2 from the atmosphere, fashion brands can take steps towards minimizing their environmental impact and working towards a more sustainable future.

Q:How is carbon used in the production of textiles?: Textile production utilizes carbon in multiple ways, encompassing the utilization of carbon fibers, activated carbon, carbon black, and carbon nanotubes. Carbon fibers, for instance, serve as a lightweight and sturdy reinforcement for fabrics, enhancing their durability and performance. Activated carbon, known for its porous nature, finds extensive use in the textile industry due to its ability to adsorb and eliminate undesirable odors and chemicals. Consequently, it is employed in the manufacturing of sportswear, workwear, and specialized textiles where odor control is crucial. Additionally, carbon black, a finely powdered substance composed of carbon particles, functions as a pigment in textile printing and dyeing. By imparting a deep black hue, it is widely employed in the production of garments, upholstery, and other textiles requiring a dark coloration. Moreover, the development of carbon nanotextiles represents an innovative application of carbon in the textile realm. These textiles, fabricated from carbon nanotubes, exhibit exceptional properties such as high electrical conductivity and thermal stability. Consequently, they are ideal for applications involving wearable electronics, smart textiles, and conductive fabrics. In conclusion, carbon's incorporation into textiles through the integration of carbon fibers, activated carbon, carbon black, and carbon nanotubes contributes significantly to the strength, durability, odor control, coloration, and functionality of various textile types.

Q:What is the composition of carbon in stainless steel?: Adjust the hardness, general carbon content, the higher the relative hardness is relatively hard. But no, the higher the better, the carbon content needs to be well controlled. For example, if the welding position is too high carbon, it will lead to brittle weld and easy to crack.

Q:Can carbon be recycled?: Yes, carbon can be recycled.

Q:What is the effect of carbon equivalent on welding?: The greater the carbon equivalent, the greater the tendency to harden the welding material, and the cold crack is likely to occur in the welding area.Carbon equivalent is related to hardening and cold crack tendency due to welding heat:When the carbon equivalent is large, the martensite structure which is easy to harden in the welding heat affected zone is sensitive to crack and hydrogen quenching. Hardening causes more lattice defects. In the condition of stress and thermal imbalance in the weld, the lattice defect is called the crack source, which increases the tendency of cold crack in the weld.

Q:What is the chemical symbol for carbon?: The chemical symbol for carbon is C.

Q:What are the consequences of increased carbon emissions on technological advancements?: Increased carbon emissions can have both positive and negative consequences for technological advancements. On the positive side, a greater emphasis on reducing carbon emissions has stimulated innovation in clean technology and renewable energy sources. This has resulted in advancements in technologies like solar panels, wind turbines, and electric vehicles, which are considered more environmentally friendly alternatives to traditional energy sources. These advancements have the potential to create new industries, generate jobs, and foster sustainable development. However, increased carbon emissions can also have detrimental effects on technological advancements. The elevated levels of carbon dioxide in the atmosphere contribute to climate change, which poses significant challenges for various sectors, including technology. Extreme weather events, such as hurricanes and wildfires, can cause damage to infrastructure and disrupt technological systems. Additionally, higher temperatures can impair the efficiency of electronic devices, leading to increased energy consumption and decreased performance. Furthermore, the need to address climate change and develop clean technologies requires substantial financial investments. This can divert resources from other areas of technological innovation and research, thereby limiting progress in fields like artificial intelligence, biotechnology, or space exploration. Consequently, the focus on reducing carbon emissions may hinder overall advancements in certain technological areas. In conclusion, the consequences of increased carbon emissions on technological advancements are intricate and multifaceted. While they have driven innovation in clean technologies, they have also presented challenges and trade-offs in terms of resource allocation and the impact of climate change on technological infrastructure. Therefore, efforts to reduce carbon emissions must be balanced with the imperative of continued progress in other technological fields in order to achieve a sustainable and technologically advanced future.

Q:What are the consequences of increased carbon emissions on economic stability?: Economic stability is significantly impacted by the increase in carbon emissions. Climate change worsens as a result, resulting in more frequent and severe natural disasters like hurricanes, floods, and wildfires. These events cause immense economic damage, including infrastructure destruction, property loss, and supply chain disruption. Moreover, the economic implications of climate change, driven by the rise in carbon emissions, are long-term. Coastal cities and industries are threatened by rising sea levels, leading to potential population displacement and valuable asset loss. Agricultural productivity is affected by extreme heatwaves and droughts, impacting food security and causing price increases. These climate-related disruptions can destabilize economies, especially in vulnerable regions highly dependent on agriculture or tourism. Furthermore, substantial financial investments are required for climate change mitigation and adaptation efforts, such as transitioning to cleaner energy sources and implementing climate policies. This strains government budgets and diverts resources from other socio-economic priorities, potentially resulting in reduced funding for education, healthcare, and infrastructure development. Additionally, increased carbon emissions have economic consequences beyond immediate climate-related impacts. The reliance on fossil fuels as the primary energy source contributes to volatile oil prices, which can disrupt global markets and affect economic stability. As the world moves towards a low-carbon economy, industries heavily reliant on fossil fuels may face significant challenges, leading to job losses and economic upheaval. To summarize, the increase in carbon emissions has extensive effects on economic stability. Climate change causes more frequent and severe natural disasters, resulting in significant economic damage. Responding to climate change through mitigation and adaptation efforts strains government budgets and diverts resources from other critical sectors. Moreover, the reliance on fossil fuels poses long-term risks to industries tied to these resources. It is essential to address carbon emissions to safeguard economic stability and foster sustainable growth.

Q:What is the carbon content of different types of soil?: Various factors, such as climate, vegetation, and land management practices, can greatly influence the carbon content of different types of soil. Generally, soils with higher levels of organic matter exhibit higher levels of carbon. For instance, peat soils boast the highest carbon content among all soil types, ranging from 30% to 60%. These soils form in wetland areas where the decomposition of organic matter is hindered by water saturation, resulting in the accumulation of substantial amounts of carbon over time. Forest soils also tend to possess relatively high carbon content, typically falling between 1% and 10%. Forests continually supply organic matter through litterfall, contributing to the build-up of carbon in the soil. In contrast, agricultural soils generally exhibit lower carbon content compared to peat or forest soils. Factors such as crop rotation, organic amendments, and tillage practices influence the carbon content of agricultural soils. Consequently, the carbon content in these soils can range from less than 1% to around 6%. Grassland soils may have carbon contents similar to agricultural soils, depending on management practices. However, in undisturbed grasslands with high plant productivity, the carbon content can be relatively higher, ranging from 2% to 8%. In arid and desert regions, soils tend to display lower carbon content due to limited vegetation and slower rates of organic matter decomposition. Typically, the carbon content in these soils is less than 1%. It is important to acknowledge that these ranges are generalizations, and the carbon content of soil can vary both within and between soil types. Additionally, alterations in land use, such as deforestation or the conversion of grasslands to agriculture, can have a significant impact on soil carbon content.

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