Calcined Anthracite FC 94% Low Price CNBM Product

Calcined Anthracite FC 94% Low Price CNBM Product

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Loading Port:: China main port

Payment Terms:: TT OR LC

Min Order Qty:: 0 m.t.

Supply Capability:: 100000 m.t./month

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Packaging & Delivery

Packaging Detail:	25kgs/50kgs/1ton per bag or as buyer's request
Delivery Detail:	Within 20 days after receiving corect L/C

Specifications

Calcined Anthracite
Fixed carbon: 90%-95%
S: 0.5% max
Size: 0-3. 3-5.3-15 or as request

Our Products:

•Feature: All of our goods are made in the best quality of world famous Tianjin. All of our products are with High carbon, Low ash, low sulphur, Low Moisture.

•Application:

The Calcined Anthracite Coal/Gas Calcined Anthracite Coal/Carbon Raiser is mainly used in steelmaking in electrical stove, screening water, shipbuilding sandblast to remove rust. It can reduce the cost of steelmaking effectively by replacing the traditional petroleum coke of carburant.Also can improve the Carbon content in steel-melting and Ductile iron foundry.

General Specification of Calcined Anthracite:

PARAMETER UNIT GUARANTEE VALUE
F.C.%	95MIN	94MIN	93MIN	92MIN	90MIN
ASH %	4MAX	5MAX	6MAX	7MAX	8MAX
V.M.%	1 MAX	1MAX	1.5MAX	1.5MAX	1.5MAX
SULFUR %	0.5MAX	0.5MAX	0.5MAX	0.5MAX	0.5MAX
MOISTURE %	0.5MAX	0.5MAX	0.5MAX	0.5MAX	0.5MAX

Size can be adjusted based on buyer's request.

Pictures of Calcined Anthracite:

FC 90%-95% Calcined Anthracite

Calcined Anthracite FC 94% Low Price CNBM Product

Q: What is the carbon content of different fuels?: The carbon content of different fuels varies depending on the source and composition of the fuel. Generally, fossil fuels such as coal, oil, and natural gas have high carbon content, with coal having the highest. Renewable fuels like biofuels and biomass also contain carbon, but their carbon content can vary depending on the feedstock and production process. On the other hand, carbon-neutral fuels like hydrogen and electricity have negligible carbon content, as they do not produce carbon dioxide when burned.

Q: How does carbon affect the growth of plants?: Carbon is essential for plant growth as it is a key component of carbohydrates, proteins, and other organic compounds that are vital for plant structure and function. Through the process of photosynthesis, plants absorb carbon dioxide from the atmosphere and convert it into glucose, which provides energy for growth and development. Carbon also plays a crucial role in regulating plant water uptake and nutrient absorption. In summary, carbon is indispensable for the growth and overall health of plants.

Q: How is carbon used in the production of lubricants?: Carbon is used in the production of lubricants as it forms the base of many lubricant formulations. Carbon compounds, such as hydrocarbons, are used as the primary ingredient in lubricants to provide lubricating properties. These compounds help reduce friction and wear between moving parts, thus improving the efficiency and lifespan of machinery and equipment.

Q: What are the impacts of carbon emissions on the stability of mountain glaciers?: Carbon emissions have significant impacts on the stability of mountain glaciers. As carbon dioxide and other greenhouse gases are released into the atmosphere, they contribute to global warming and climate change. This rise in global temperatures directly affects the stability and health of mountain glaciers. One of the main consequences of increased carbon emissions is the accelerated melting of mountain glaciers. Warmer temperatures cause glaciers to melt at a faster rate, leading to a reduction in their size and volume. This not only affects the aesthetic beauty of these natural wonders but also has major implications for water resources and ecosystems. Mountain glaciers act as natural reservoirs, storing water in the form of ice and releasing it gradually over time. This process helps regulate water flow in rivers and streams, ensuring a steady water supply for downstream communities, agriculture, and ecosystems. However, as carbon emissions contribute to glacier melting, this natural water storage mechanism is disrupted. The loss of glaciers leads to reduced water availability during dry seasons and can result in water scarcity for communities that rely on glacier meltwater. Furthermore, the retreat of mountain glaciers due to carbon emissions has ecological consequences. These glaciers provide critical habitats for various plant and animal species. The loss of glacier ice and associated ecosystems can have a ripple effect on the entire ecosystem, leading to the decline or even extinction of species that depend on glacier-fed environments. The impacts of carbon emissions on mountain glaciers also extend beyond local communities and ecosystems. Glacial meltwater contributes to the overall water supply in many regions around the world. As glaciers shrink and disappear, the availability of water resources becomes uncertain, especially in regions heavily reliant on glacier meltwater. This can potentially lead to conflicts over water resources and exacerbate existing tensions. In conclusion, carbon emissions have detrimental impacts on the stability of mountain glaciers. The accelerated melting of glaciers disrupts water availability, threatens ecosystems, and poses challenges for water resource management. It is crucial to reduce carbon emissions to mitigate these impacts and preserve the integrity and functionality of mountain glaciers.

Q: What is carbon black filler?: Carbon black filler is a type of additive that is commonly used in the production of rubber and plastic products. It is a fine, powdery substance that is derived from the incomplete combustion of hydrocarbons, such as oil or natural gas. Carbon black filler is composed primarily of elemental carbon, with small amounts of other elements such as hydrogen, oxygen, and sulfur. The main purpose of using carbon black filler is to improve the physical properties of rubber and plastic materials. It is added to enhance the strength, durability, and wear resistance of the final product. Carbon black filler also helps to increase the stiffness and hardness of the material, making it more suitable for various applications. In addition to its mechanical properties, carbon black filler also provides other benefits. It acts as a reinforcing agent, increasing the tensile strength and tear resistance of rubber compounds. It also enhances the electrical conductivity of the material, making it useful in applications where static electricity needs to be dissipated. Moreover, carbon black filler helps to protect the material from the harmful effects of UV radiation and ozone. It acts as a UV stabilizer and antioxidant, preventing degradation and prolonging the lifespan of the product. Carbon black filler also improves the thermal conductivity of rubber and plastic materials, aiding in heat dissipation. Overall, carbon black filler is a versatile and widely used additive in the manufacturing industry. Its unique properties make it an essential component in the production of a wide range of rubber and plastic products, including tires, conveyor belts, hoses, gaskets, and many more.

Q: What are the advantages of carbon nanotube transistors?: Carbon nanotube transistors have several advantages over traditional silicon-based transistors. Firstly, carbon nanotubes have a much smaller size, allowing for the creation of highly compact and powerful electronic devices. Their high current-carrying capacity also enables faster and more efficient signal processing. Additionally, carbon nanotubes possess excellent electrical properties, such as high mobility and low resistance, resulting in reduced power consumption and improved device performance. Moreover, they exhibit exceptional thermal conductivity, ensuring better heat dissipation and overall device reliability. Lastly, carbon nanotubes are highly flexible and can be integrated into various substrates, enabling the development of flexible and wearable electronics.

Q: How are carbon nanotubes used in various industries?: Carbon nanotubes have found applications in numerous industries due to their incredible versatility. With their unique properties, they are ideal for a wide range of uses. In the electronics industry, carbon nanotubes enhance the performance of electronic devices. They act as conductive additives in polymers, improving electrical conductivity. This makes them suitable for flexible displays, touchscreens, and wearable electronics. Moreover, carbon nanotubes serve as field emitters in flat-panel displays, resulting in brighter and more energy-efficient screens. The aerospace and automotive industries benefit from carbon nanotubes as well. Their exceptional strength and low weight make them perfect for manufacturing lightweight and durable composites for aircraft and automobile parts. These composites offer improved fuel efficiency, increased load-bearing capacity, and enhanced resistance to impact and corrosion. Consequently, they are crucial in the development of next-generation vehicles and aircraft. Carbon nanotubes have also made significant contributions to the energy sector. They have been instrumental in developing more efficient and durable batteries and supercapacitors. With their high surface area and excellent electrical conductivity, carbon nanotubes enable faster charging and discharging rates, leading to improved energy storage and longer battery life. Additionally, they are being explored as catalysts for fuel cells, promising a more sustainable and efficient power source for the clean energy industry. The medical and healthcare industries utilize carbon nanotubes in various applications as well. They act as drug delivery vehicles, allowing targeted delivery of medications to specific cells or tissues. This enhances treatment efficacy and reduces side effects. Furthermore, carbon nanotubes have unique optical properties that can enhance the sensitivity and resolution of medical imaging techniques like MRI and CT scans, potentially advancing medical imaging capabilities. Carbon nanotubes also find applications in the construction industry, where they reinforce concrete and enhance its mechanical properties. By adding carbon nanotubes to concrete, it becomes stronger, more durable, and resistant to cracking and corrosion. This leads to safer and longer-lasting infrastructure, such as bridges and buildings. In summary, carbon nanotubes have revolutionized various industries by offering exceptional properties, including high strength, electrical conductivity, and light weight. From electronics to aerospace, energy to healthcare, and construction to automotive, carbon nanotubes have found applications in a multitude of sectors, enabling the development of innovative and advanced technologies.

Q: How does carbon impact the stability of tundra ecosystems?: Carbon impacts the stability of tundra ecosystems in several ways. Firstly, carbon plays a crucial role in the formation and development of tundra soils. As plants in the tundra grow and photosynthesize, they absorb carbon dioxide from the atmosphere and convert it into organic matter through photosynthesis. This organic matter eventually decomposes and adds carbon to the soil, forming a layer of organic-rich permafrost that helps stabilize the ecosystem. Additionally, carbon in the form of vegetation acts as a protective layer against erosion in tundra ecosystems. The dense vegetation cover, composed of mosses, lichens, and shrubs, helps to hold the soil in place and prevents it from being washed away by wind or water. This stabilization is essential in the tundra, where the cold temperatures and short growing seasons limit plant growth and soil development. Furthermore, the stability of tundra ecosystems is influenced by the release of carbon dioxide and methane, which are greenhouse gases, from the melting permafrost. As global temperatures rise, the permafrost thaws, releasing stored carbon into the atmosphere. This process creates a positive feedback loop, as the released carbon contributes to further warming, which in turn accelerates permafrost thawing. This feedback loop has the potential to destabilize tundra ecosystems by altering the balance of plant and animal life, disrupting nutrient cycling, and increasing the risk of wildfires. Overall, carbon plays a vital role in maintaining the stability of tundra ecosystems through the formation of soils, erosion control, and the regulation of greenhouse gas emissions. Understanding and managing carbon dynamics in the tundra is crucial for preserving these unique and fragile ecosystems in the face of climate change.

Q: What are the properties of carbon-based lubricants?: Hydrocarbon-based lubricants, or carbon-based lubricants, possess a multitude of unique characteristics that contribute to their high effectiveness in a variety of applications. To begin with, these lubricants demonstrate exceptional thermal stability, enabling them to maintain their lubricating qualities even when subjected to elevated temperatures. This particular feature holds significant importance in industries like aerospace and automotive, where components often operate under extreme conditions. In addition, carbon-based lubricants exhibit outstanding lubricity, effectively reducing friction and wear between moving parts. This attribute is of utmost importance in machinery and equipment, as minimizing friction is crucial for ensuring smooth operation and preventing damage. Furthermore, these lubricants have the ability to bear heavy loads, preventing metal-to-metal contact that can result in premature wear and failure. Furthermore, carbon-based lubricants demonstrate excellent resistance to oxidation, effectively preventing the formation of harmful sludge and deposits that could potentially disrupt machinery performance. This characteristic extends the lifespan of the lubricant, guaranteeing long-term effectiveness and reducing the frequency of lubricant replacements. Moreover, these lubricants possess low volatility, meaning they have a minimal tendency to evaporate. This particular quality proves advantageous in applications where minimizing lubricant loss is essential, such as in sealed systems or high-temperature environments. Additionally, carbon-based lubricants generally exhibit compatibility with a wide range of materials, including metals, plastics, and elastomers. This compatibility ensures that the lubricant does not cause any damage or degradation to the surfaces it comes into contact with, allowing for versatile use across various industries and applications. All in all, the unique properties of carbon-based lubricants, including thermal stability, lubricity, load-carrying capacity, oxidation resistance, low volatility, and material compatibility, make them highly desirable for a wide array of lubrication needs, spanning from automotive and industrial machinery to aerospace and marine applications.

Q: What are the applications of graphite in industry?: Graphite possesses distinct properties that make it suitable for a range of applications across industries. Here are several key uses of graphite in different industrial sectors: 1. Lubricants: Given its low friction coefficient, graphite is extensively employed as a solid lubricant in industries that encounter high temperatures and extreme pressures, like automotive, aerospace, and heavy machinery. 2. Refractories: Graphite's exceptional heat and chemical resistance make it an ideal material for manufacturing refractory products. It helps line furnaces, crucibles, and other high-temperature equipment in metal production, glass manufacturing, and chemical processing. 3. Electrical industry: Graphite's excellent electrical conductivity makes it widely utilized in this sector. It is employed to produce electrodes, brushes, and contacts for electrical motors, generators, and batteries. Furthermore, graphite serves as a component in electrical discharge machining (EDM) and conductive paints and coatings. 4. Foundry industry: Graphite acts as a mold and core material in the foundry industry, owing to its high thermal conductivity and ability to withstand high temperatures. It finds application in various metal casting processes, including sand casting, investment casting, and continuous casting. 5. Chemical industry: The chemical industry benefits from graphite's corrosion resistance and capacity to endure high temperatures. It is utilized in the manufacture of chemical equipment such as heat exchangers, reactors, and pipes, where it can withstand aggressive chemical environments. 6. Nuclear industry: In the nuclear industry, graphite serves as a moderator in nuclear reactors. Its ability to slow down neutrons allows for controlled nuclear fission reactions. Additionally, graphite is employed as a structural material in certain types of nuclear reactors. 7. Composite materials: Graphite is frequently used as a reinforcement material in the production of composite materials. By combining graphite fibers or sheets with resins or metals, lightweight and high-strength composites are created for applications in aerospace, automotive, and sporting goods industries. In conclusion, graphite's unique properties, encompassing high thermal and electrical conductivity, lubricity, and chemical inertness, contribute to its versatility as a material with diverse applications across industries.

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