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: What is carbon black pigment?: Carbon black pigment, used predominantly as a coloring agent in various applications, is a finely divided form of carbon. It is derived from the incomplete combustion or thermal decomposition of hydrocarbons like coal tar, petroleum, or natural gas, resulting in the formation of extremely small particles with a high surface area. Renowned for its intense black color, high tinting strength, and excellent UV stability, carbon black pigment finds extensive use in the manufacture of inks, paints, coatings, plastics, rubber, and other materials. The particles disperse effectively in these mediums, ensuring a deep and uniform black hue. Apart from its coloring prowess, carbon black pigment boasts several other desirable attributes. It enhances the durability, weather resistance, and electrical conductivity of materials. Additionally, it augments the UV resistance and absorption properties of coatings and plastics, thereby safeguarding against fading and degradation caused by sunlight exposure. Furthermore, carbon black pigment exhibits chemical inertness, rendering it suitable for a wide range of applications without triggering undesirable chemical reactions. It is also non-toxic and has a minimal environmental footprint, making it a preferred choice across multiple industries. In summary, carbon black pigment serves as a versatile and highly utilized additive that imparts deep black coloration, durability, and improved performance to various materials. Its exceptional properties make it an indispensable component in numerous industries, contributing to the production of high-quality products.

Q: How are carbon nanotubes used in various applications?: Carbon nanotubes are incredibly versatile and have found numerous applications across various fields. In electronics, carbon nanotubes are used as an alternative to traditional silicon-based materials, enabling the development of smaller, faster, and more efficient devices. They can be used as the building blocks for transistors, interconnects, and memory devices. In the field of energy, carbon nanotubes are being explored for their potential in improving the performance of batteries and supercapacitors. Their high electrical conductivity and large surface area make them ideal for enhancing energy storage and facilitating faster charge and discharge rates. Carbon nanotubes also have applications in the field of materials science. They can be incorporated into composites to enhance their strength, stiffness, and electrical conductivity. These composites find use in aerospace, automotive, and construction industries, where lightweight and durable materials are sought after. Additionally, carbon nanotubes are being investigated for their potential in the field of medicine. Due to their unique properties, they can be utilized for drug delivery systems, sensors, and imaging technologies. They have the ability to selectively target cancer cells, enabling more efficient and targeted treatment options. In summary, carbon nanotubes have an extensive range of applications, including electronics, energy storage, materials science, and medicine. Their remarkable properties make them highly desirable for enhancing performance and enabling advancements in various industries.

Q: How does carbon affect the formation of haze?: Carbon plays a significant role in the formation of haze due to its ability to interact with other pollutants and atmospheric conditions. When carbon-containing compounds, such as fossil fuel emissions or organic matter from wildfires, are released into the atmosphere, they undergo chemical reactions with gases like nitrogen oxides and volatile organic compounds. These reactions result in the formation of secondary organic aerosols (SOAs), which are tiny particles suspended in the air. These SOAs can contribute to haze formation by scattering and absorbing sunlight, reducing visibility and creating a hazy appearance. The carbon particles can also serve as condensation nuclei, attracting other pollutants and water vapor, leading to the formation of larger particles and subsequently haze. Additionally, the interaction between carbon and atmospheric moisture can result in the formation of secondary organic aerosol particles that contribute to haze formation. Furthermore, carbon particles can contribute to the formation of photochemical smog, which is a type of haze characterized by high levels of ozone. Carbon-containing pollutants can react with sunlight and other pollutants, leading to the production of ozone. This ozone, along with other pollutants, can contribute to the formation of haze and reduce air quality. In summary, carbon affects the formation of haze by contributing to the formation of secondary organic aerosols, serving as condensation nuclei, and promoting the production of ozone. Understanding the role of carbon in haze formation is crucial for implementing effective air pollution control measures and mitigating the impacts of haze on human health and the environment.

Q: How do carbon emissions contribute to extreme weather events?: Carbon emissions contribute to extreme weather events by intensifying the greenhouse effect and warming the Earth's atmosphere. This leads to higher temperatures, which in turn increase the likelihood and severity of heatwaves, droughts, and wildfires. Additionally, elevated carbon levels contribute to the melting of polar ice caps, causing sea levels to rise and resulting in more frequent and intense storms, floods, and hurricanes.

Q: What is the structure of carbon-based polymers?: The structure of carbon-based polymers is characterized by a chain-like arrangement of carbon atoms, forming the backbone of the polymer. These carbon atoms are typically bonded to other atoms or groups of atoms, such as hydrogen, oxygen, nitrogen, or halogens, through covalent bonds. The properties of the polymer are determined by the arrangement and connectivity of these atoms. In addition to the carbon backbone, functional groups are often present in carbon-based polymers. These functional groups are specific combinations of atoms that can give the polymer unique chemical properties. They can be attached to different points along the carbon backbone, adding chemical diversity and altering the behavior of the polymer. The monomers, which are the repeating units in carbon-based polymers, can vary in size and complexity. For instance, simple hydrocarbons like ethylene can undergo polymerization to form polyethylene, which consists of a long chain of carbon atoms with attached hydrogen atoms. On the other hand, more complex monomers like acrylonitrile or styrene can be utilized to produce polymers like polyacrylonitrile or polystyrene, respectively. These polymers incorporate additional atoms or functional groups, resulting in distinct properties and applications. In conclusion, carbon-based polymers possess a diverse structure that can be customized to fulfill specific requirements. This versatility allows them to be utilized in a wide array of industries, including plastics, textiles, and electronics.

Q: Why carbon fiber resistant to low temperature: Resistance to 180 DEG C carbon fiber can be low temperature, under this condition, many materials are brittle, even sturdy steel has become fragile than glass, and carbon fiber under this condition is still very soft. Therefore, the carbon fiber composite core can be used in the design and manufacture of transmission carriers under extremely cold conditions, such as Antarctic research and research.

Q: How does carbon contribute to the strength of alloys?: Carbon contributes to the strength of alloys by forming interstitial solid solutions with metals, which increases the hardness and strength of the material. The carbon atoms occupy the spaces between the metal atoms, creating lattice distortions and enhancing the overall strength of the alloy. Additionally, carbon can also form compounds with metals, such as carbides, which further improve the hardness and wear resistance of alloys.

Q: How is carbon dioxide formed?: Various natural and man-made processes contribute to the formation of carbon dioxide. Fossil fuel combustion, including the burning of coal, oil, and natural gas, is a primary source of carbon dioxide. When these fuels are burned for energy or transportation purposes, carbon from hydrocarbons combines with oxygen from the air, resulting in carbon dioxide formation. In addition, carbon dioxide is released through natural occurrences such as volcanic eruptions and respiration by living organisms. During volcanic eruptions, molten rock releases carbon dioxide gas, which is then released into the atmosphere. Similarly, living organisms, including humans, animals, and plants, produce carbon dioxide as a byproduct of respiration, where oxygen is taken in and carbon dioxide is expelled. Furthermore, deforestation and land-use changes play a role in carbon dioxide formation. Trees and plants absorb carbon dioxide through photosynthesis, but when forests are cleared, this natural carbon sink is lost, leading to an increase in atmospheric carbon dioxide levels. Moreover, industrial processes like cement production and chemical reactions in manufacturing also contribute to carbon dioxide release. These processes involve the breakdown or burning of carbon-containing compounds, resulting in the release of carbon dioxide as a waste product. Overall, carbon dioxide is formed through a combination of natural processes and human activities. However, the burning of fossil fuels remains the largest contributor to the heightened levels of carbon dioxide in the atmosphere.

Q: What is the importance of carbon dating in archaeology?: Archaeology heavily relies on carbon dating, which plays a pivotal role in determining the age of artifacts and archaeological sites. This scientific technique is essential for establishing a chronological framework and comprehending the timeline of human history. Carbon dating operates on the principle that all living organisms contain a specific amount of radioactive carbon-14, which undergoes predictable decay over time. By quantifying the remaining carbon-14 in an artifact or organic material, archaeologists can calculate its age. This method is particularly advantageous when dating organic remains like bones, charcoal, and plant fibers, which are frequently unearthed at archaeological sites. The significance of carbon dating lies in its ability to deliver precise and trustworthy estimations of an artifact's age. This information is critical for interpreting and comprehending the context and importance of archaeological discoveries. By assigning an accurate date to an object or site, archaeologists can establish connections between different artifacts, societies, and cultures. This, in turn, aids in reconstructing ancient civilizations and their evolution throughout time. Moreover, carbon dating also contributes to refining and validating historical timelines. It enables archaeologists to cross-reference and authenticate the dating of artifacts and sites by employing alternative dating methods, such as dendrochronology (tree-ring dating) or stratigraphy (the study of rock layers). Employing multiple dating techniques enhances the accuracy and reliability of archaeological interpretations. Carbon dating also assists in identifying and distinguishing genuine artifacts from forgeries. By analyzing the age of an object, archaeologists can determine if it aligns with the claimed historical context. This is especially pertinent in the realm of art and antiquities, where the market for counterfeits can be lucrative. In conclusion, carbon dating is an indispensable tool in archaeology, enabling researchers to establish the chronology of ancient civilizations, validate historical timelines, and identify authentic artifacts. It provides invaluable insights into our past, facilitating a deeper understanding and appreciation of the diverse tapestry of human history.

Q: What is a carbon electrode? What's the use? What's the current situation in the industry? Try to be specific. Thank you: Tons of ferrosilicon smelting costs reduced by 300-400 yuan, tons of calcium carbide smelting costs reduced by more than 100 yuan.Carbon electrode is an energy saving and environmental friendly product. It can greatly reduce power consumption and reduce pollution in the use of calcium carbide and ferroalloy ore heating furnaces. It is the replacement product of electrode paste. In the submerged arc furnace with the same capacity, electrode paste self baking electrode compared with the following characteristics: improving smelting furnace production, reduce power consumption and reduce the labor intensity (15-20%; 1 tons of iron smelting alloy consumption of electrode paste carbon electrode about 60kg, consumption is only about 12kg, reduce the operating times of the electrode), simplified production process; to avoid or reduce the self baking electrode frequent "broken soft" and "hard" accidents, improve the working environment, reduce operating costs.

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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