Natural Flake Graphite Carbon Product For Industry

Natural Flake Graphite Carbon Product For Industry System 1

Natural Flake Graphite Carbon Product For Industry

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Loading Port:: Qingdao

Payment Terms:: TT OR LC

Min Order Qty:: 10 m.t

Supply Capability:: 5000000 m.t/month

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Specifications of Natural Flake Graphite:

F.C:80%min-98%min Size:+80mesh,+100mesh,-100mesh.

- Description & Application:

Widely applied to high quality fire resistance material and coating of metallurgy industry, hot working

material stabilizer of military industry, lead of light industry, carbon brush of electrical industry, electrode of

battery industry, and catalyzer and additive of fertilizer industry. After further process, scale graphite can be

made into the following high-tech products such as graphite colloidal graphite, graphite compacting material

and composite material, graphite products, and graphite anti-friction additive, which are becoming important

nonmetal mineral materials in every industry.

- Technical Specification:

ITEM	F.C %(min)	V.M %(max)	ASH %(max)	MOISTURE %(max)	SIZE
-198	98	1.0	1.0	0.5	-100mesh
+198	98	1.0	1.0	0.5	+100mesh
-197	97	1.2	1.8	0.5	-100mesh
+197	97	1.2	1.8	0.5	+100mesh
-196	96	1.2	2.8	0.5	-100mesh
+196	96	1.2	2.8	0.5	+100mesh
-195	95	1.2	3.8	0.5	-100mesh
+195	95	1.2	3.8	0.5	+100mesh
-194	94	1.2	4.8	0.5	-100mesh
+194	94	1.2	4.8	0.5	+100mesh
-193	93	1.5	5.5	0.5	-100mesh
+193	93	1.5	5.5	0.5	+100mesh
-192	92	1.5	6.5	0.5	-100mesh
+192	92	1.5	6.5	0.5	+100mesh
-190	90	2.0	8.0	0.5	-100mesh
+190	90	2.0	8.0	0.5	+100mesh
-185	85	2.5	12.5	0.5	-100mesh
+185	85	2.5	12.5	0.5	+100mesh
-180	80	3.0	17.0	1	-100mesh
+180	80	3.0	17.0	1	+100mesh

+897	97	1.2	1.8	0.5	+80mesh
+896	96	1.2	2.8	0.5	+80mesh
+895	95	1.2	3.8	0.5	+80mesh
+894	94	1.2	4.8	0.5	+80mesh
+892	92	1.5	6.5	0.5	+80mesh
+890	90	2.0	8.0	0.5	+80mesh

Q: Is carbon a conductor?: Graphite is a conductor, diamond is notGraphite is a layer, C structure can guide electrons, but diamond is stable, C structure can not guide electronsTo see whether a substance is a conductor, the key is to see if it can lead to electrons - - this is an explanation in a middle school book

Q: How is carbon used in the production of plastics?: Carbon is used in the production of plastics through a process called polymerization. Carbon atoms are linked together to form long chains or networks known as polymers, which give plastics their characteristic properties. These carbon-based polymers can be molded into various shapes and sizes to create a wide range of plastic products that are used in our daily lives.

Q: What does carbon nanotubes (5,5) in (5,5) mean?: You can imagine will find a layer of carbon atoms on the plane (5,5) points, grabbed (5,5) and (0,0), the whole plane to roll the overlap is not only two tubular carbon nanotubes (5,5). So the (n, m) and the diameter of the nanotubes have a close relationship.

Q: What is the relationship between carbon emissions and air pollution?: Carbon emissions and air pollution are closely interconnected. Carbon emissions, which mainly come from burning fossil fuels such as coal, oil, and natural gas, release large amounts of carbon dioxide (CO2) into the atmosphere. This increase in CO2 levels contributes significantly to the greenhouse effect, trapping heat in the atmosphere and leading to global warming. Air pollution, on the other hand, refers to the presence of harmful substances in the air that can be detrimental to human health and the environment. While carbon dioxide itself is not directly toxic to humans, it plays a crucial role in the formation of other air pollutants. One of the primary consequences of increased carbon emissions is the production of fine particulate matter (PM2.5) and ground-level ozone (O3). These pollutants are created through complex chemical reactions involving CO2 and other pollutants like nitrogen oxides (NOx) and volatile organic compounds (VOCs). PM2.5 and O3 are known to cause respiratory problems, cardiovascular diseases, and other health issues. Furthermore, carbon emissions also contribute to the formation of other air pollutants such as sulfur dioxide (SO2), nitrogen oxides (NOx), and heavy metals. These pollutants are emitted alongside CO2 from various industrial processes, power generation, and transportation. They can have severe health impacts, including respiratory diseases, asthma, and even cancer. Reducing carbon emissions is crucial to combatting air pollution. By transitioning to cleaner energy sources like renewables and improving energy efficiency, we can significantly reduce the amount of CO2 and other pollutants emitted into the atmosphere. Implementing stricter regulations and adopting cleaner technologies in industries and transportation can also help reduce air pollution and its associated health risks. In conclusion, carbon emissions and air pollution are intrinsically linked. The release of CO2 and other pollutants from burning fossil fuels contributes to global warming and the formation of harmful air pollutants. Addressing the problem of carbon emissions is essential to mitigate air pollution and protect human health and the environment.

Q: What is the impact of carbon emissions on agriculture?: Carbon emissions have a significant impact on agriculture as they contribute to climate change, leading to adverse effects on crop yields, soil fertility, and water availability. Increased levels of carbon dioxide in the atmosphere can enhance photosynthesis to some extent, but this positive effect is often offset by rising temperatures, altered precipitation patterns, and increased frequency of extreme weather events. These changes disrupt traditional growing seasons, promote the spread of pests and diseases, and reduce food production. Additionally, carbon emissions also contribute to air pollution, which can further harm plants, livestock, and human health. Therefore, reducing carbon emissions and adopting sustainable agricultural practices are crucial to mitigate these negative impacts and ensure food security for future generations.

Q: How does carbon affect the quality of soil?: Carbon plays a crucial role in determining the quality of soil. When organic matter, such as dead plants and animals, decomposes, it releases carbon into the soil. This process is known as carbon sequestration, and it is essential for maintaining soil fertility and health. The presence of carbon in soil promotes the growth of beneficial microorganisms, such as bacteria and fungi, which contribute to the breakdown of organic matter and the recycling of nutrients. These microorganisms help to create a rich and fertile soil environment, ensuring that essential nutrients are available for plants to absorb. Additionally, carbon in soil improves its structure and water-holding capacity. It acts as a sponge, allowing the soil to retain moisture, which is crucial for plant growth and survival. Carbon also helps to prevent soil erosion by binding particles together, reducing the risk of nutrient loss and water runoff. Furthermore, carbon enhances the soil's ability to store and release nutrients. It acts as a reservoir, holding onto essential elements like nitrogen, phosphorus, and potassium, and gradually releasing them to plants over time. This nutrient cycling is vital for sustaining healthy plant growth and productivity. Unfortunately, modern agricultural practices, such as excessive tilling, overuse of synthetic fertilizers, and deforestation, have led to a significant decline in soil carbon levels. This loss of carbon has detrimental effects on soil quality, leading to decreased fertility, increased erosion, and reduced water-holding capacity. To mitigate these negative impacts, it is crucial to adopt sustainable agricultural practices that focus on carbon sequestration and soil conservation. These practices include reducing tillage, incorporating cover crops, practicing crop rotation, and applying organic fertilizers. By increasing carbon levels in soil, we can improve its quality, promote plant growth, and ensure the long-term sustainability of our agricultural systems.

Q: What's the difference between an alkaline cell and a carbon cell?: 3. Alkaline batteries, also called alkaline dry cells, are suitable for large capacity and long time use. The internal resistance of the battery is low, so the current produced is larger than that of the general zinc manganese battery, while the environmental protection type mercury content is only 0.025%, and no recycling is needed. Based on his environmental protection, and the current characteristics of large, so now alkaline battery more.4. In the final analysis, the essential difference between a carbon cell and an alkaline cell is the internal material. In short, carbon battery consists of carbon, zinc skin composition, but its internal cadmium and mercury, is not conducive to environmental protection, but it is cheap, so there is a space for one person in the market, and the alkaline battery no pollution of heavy metal ions, high current, conducive to environmental protection, is the future development direction of the battery!

Q: What are the applications of carbon nanowires?: Carbon nanowires have a wide range of applications across various fields due to their unique properties and characteristics. Some of the key applications of carbon nanowires are: 1. Electronics: Carbon nanowires can be used as conducting channels in electronic devices, such as transistors and interconnects. Their high electrical conductivity, small size, and ability to carry high current densities make them ideal for use in nanoelectronics. 2. Energy storage: Carbon nanowires can be utilized in energy storage devices, such as batteries and supercapacitors. Their high surface area and excellent electrical conductivity enable efficient charge and energy storage, leading to enhanced performance and longer life cycles. 3. Sensors: Carbon nanowires can be used as sensing elements in various types of sensors. Their high sensitivity to changes in temperature, pressure, or gas concentration makes them suitable for applications in environmental monitoring, healthcare, and industrial sensing. 4. Biomedical applications: Carbon nanowires show promise in biomedical applications, including drug delivery systems and tissue engineering. They can be functionalized with specific molecules to target and deliver drugs to specific cells or tissues. Additionally, their high mechanical strength and biocompatibility make them suitable for scaffolds in tissue engineering applications. 5. Nanoelectromechanical systems (NEMS): Carbon nanowires can be used to construct NEMS devices, which are miniature mechanical systems that operate at the nanoscale. These devices have applications in sensing, actuation, and data storage, and carbon nanowires provide the necessary mechanical and electrical properties for their operation. 6. Nanocomposites: Carbon nanowires can be incorporated into various materials to enhance their mechanical, electrical, and thermal properties. They can reinforce polymers, ceramics, and metals, leading to improved strength, conductivity, and heat dissipation in the resulting nanocomposites. 7. Optoelectronics: Carbon nanowires can be utilized in optoelectronic devices, such as photodetectors and light-emitting diodes (LEDs). Their high electron mobility, low electrical resistance, and ability to emit light make them suitable for applications in displays, lighting, and optical communications. Overall, the applications of carbon nanowires are diverse and expanding, with the potential to revolutionize fields such as electronics, energy storage, sensing, biomedicine, and more. Continuous research and development in this area are expected to uncover even more exciting applications in the future.

Q: How does carbon impact the availability of clean drinking water?: Carbon can have a significant impact on the availability of clean drinking water through various processes. One of the major ways carbon affects water quality is through the process of carbon dioxide (CO2) emissions and subsequent acid rain formation. When CO2 combines with water in the atmosphere, it forms carbonic acid, which can be very damaging to water bodies. Acid rain, which is primarily caused by the release of carbon emissions from industrial activities and burning fossil fuels, can have devastating effects on freshwater sources. It can lower the pH level of lakes, rivers, and groundwater, making the water more acidic. This increased acidity can harm aquatic life, destroy ecosystems, and render water sources unsuitable for drinking, agriculture, or industrial use. Additionally, carbon can impact the availability of clean drinking water through its role in climate change. Excessive carbon emissions contribute to the greenhouse effect, leading to rising global temperatures and altering weather patterns. These changes can result in prolonged droughts and intense rainfall events, both of which can negatively affect water availability and quality. Droughts caused by climate change can lead to water scarcity, as precipitation patterns become less predictable and water sources dry up. This can lead to conflicts over limited water resources and force communities to rely on contaminated or unsafe water sources. On the other hand, intense rainfall events caused by climate change can result in flooding, which can overwhelm sewage systems and contaminate drinking water with pollutants and pathogens. Moreover, carbon emissions are associated with the degradation of natural ecosystems, including forests and wetlands, which play a crucial role in water purification. Forests act as natural filters, absorbing carbon dioxide and releasing oxygen, while wetlands naturally filter and cleanse water. When these ecosystems are destroyed or degraded due to deforestation or drainage, the availability of clean drinking water is further compromised. In conclusion, carbon emissions have a significant impact on the availability of clean drinking water. Acid rain formation due to carbon dioxide emissions and climate change-induced droughts and floods can all contribute to water scarcity and contamination. Protecting and reducing carbon emissions is vital to ensuring the availability of clean drinking water for present and future generations.

Q: What are the different types of carbon-based composites?: There are several different types of carbon-based composites, each with unique properties and applications. Some of the most common types include carbon fiber reinforced polymers (CFRPs), carbon nanotube composites, and carbon fiber reinforced ceramics. Carbon fiber reinforced polymers (CFRPs) are perhaps the most well-known and widely used carbon-based composites. They consist of carbon fibers embedded in a polymer matrix, such as epoxy resin. CFRPs are lightweight, yet incredibly strong and stiff, making them ideal for applications where weight reduction and high strength are crucial, such as aerospace, automotive, and sporting goods industries. Carbon nanotube composites are another type of carbon-based composite that have gained significant attention in recent years. Carbon nanotubes are cylindrical structures made of carbon atoms arranged in a hexagonal lattice. When incorporated into a composite material, they enhance its mechanical, thermal, and electrical properties. Carbon nanotube composites have potential applications in fields such as electronics, energy storage, and structural materials. Carbon fiber reinforced ceramics combine the high strength and stiffness of carbon fibers with the exceptional high-temperature resistance of ceramics. These composites are commonly used in industries that require materials capable of withstanding extreme temperatures, such as aerospace, defense, and nuclear sectors. Carbon fiber reinforced ceramics offer an excellent balance between strength, thermal stability, and low weight. Other types of carbon-based composites include carbon fiber reinforced metals, where carbon fibers are embedded in a metal matrix, and graphene composites, which incorporate graphene sheets into a polymer or metal matrix. These composites offer unique properties such as high electrical conductivity, thermal stability, and mechanical strength, opening up possibilities for applications in areas like electronics, energy storage, and structural materials. Overall, carbon-based composites offer a diverse range of properties and applications, making them invaluable materials in various industries that require lightweight, strong, and durable materials.

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