Carbon Additive FC93/High F.C. CNBM Carbon Additive

Carbon Additive FC93/High F.C. CNBM Carbon Additive System 1

Carbon Additive FC93/High F.C. CNBM Carbon Additive System 2

Carbon Additive FC93/High F.C. CNBM Carbon Additive

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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 Details:	1. carbon additive in 1 MT jumbo bag 2. carbon additive in 25kg PP bag 3. carbon additive in 50 kg woven bag 4. carbon additive in bags then put them on pallet 5.bulk in container 6.as your requirements
Delivery Detail:	within 10 days after receiving 30% deposit or LC

Product Description

Carbon additive (carbon raiser) with characteristic of low ash and low sulfur is made from calcined petroleum coke, graphite petroleum coke or high quality anthracite coal . As an ideal recarburizer and intermediate reactor, it has been widely used in different industries like metallurgy, chemistry, machinery, electricity, etc.

The selection of a charging carbon is determined by the quality requirements of the steel or ferroalloy production as well as the cost and availability of carbon products. So the recarburizer is mainly used in the metallurgy to increase the content of carbon.

Specification

Carbon	Min98%
Ash	Max0.5%
Sulphur	Max0.05%
V.M	Max0.5%
Moisture	Max0.5%
N	Max0.03%
H	Max0.01%
Sizes(mm)	1-5 1-3 3-10 1-10

Calcined petroleum coke as carbon additive

Carbon	Min89%
Ash	Max0.3%
Sulphur	Max6%
V.M	Max10%
Moisture	Max8%
N	Max0.03%
H	Max0.01%
Sizes(mm)	1-5 3-8 5-15 10-20

Calcined anthracite coal as carbon additive

Carbon	Min90-95%
Ash	Max5%
Sulphur	Max0.5%
V.M	Max1.5%
Moisture	Max0.5%
N	Max0.03%
H	Max0.01%
Sizes(mm)	1-5 3-8 1-3

Pictures of Calcined AnthraciteCoal:

Q: What is carbon offsetting in aviation?: Carbon offsetting in aviation refers to the practice of compensating for the greenhouse gas emissions produced by aircraft by investing in projects that reduce or remove an equivalent amount of carbon dioxide from the atmosphere. This voluntary measure aims to mitigate the environmental impact of air travel by supporting initiatives such as renewable energy projects or reforestation efforts.

Q: What are the impacts of carbon emissions on the availability of freshwater resources?: Carbon emissions have a significant impact on the availability of freshwater resources. One of the primary effects is the alteration of the global climate system. Increased carbon emissions lead to the greenhouse effect, which causes global warming. As a result, the Earth's temperature rises, leading to changes in weather patterns and precipitation. These changes in weather patterns can disrupt the water cycle, which crucially affects the availability of freshwater. Warmer temperatures increase evaporation rates, causing more water to be lost from lakes, rivers, and groundwater reservoirs. This leads to a reduction in the overall volume of available freshwater. Furthermore, global warming can exacerbate drought conditions in some regions. As carbon emissions contribute to rising temperatures, the frequency and intensity of droughts increase. This further reduces freshwater availability, as precipitation is limited, and water sources become depleted. Carbon emissions also impact freshwater resources through their effect on melting polar ice caps and glaciers. As the Earth warms, these frozen water sources melt at an accelerated rate, adding additional freshwater to the global water system initially. However, once these ice sources are depleted, the loss of freshwater will be significant. This process not only decreases the overall volume of freshwater available but also affects the quality of freshwater resources, as the melting ice can introduce pollutants and contaminants into the water. Moreover, carbon emissions contribute to ocean acidification, which has indirect effects on freshwater resources. Increased carbon dioxide in the atmosphere is absorbed by the oceans, leading to acidification. This change in the ocean's chemistry can harm marine ecosystems, including coral reefs, which are crucial for maintaining the health of coastal freshwater sources such as aquifers. To mitigate the impacts of carbon emissions on freshwater resources, it is vital to reduce greenhouse gas emissions and transition towards cleaner and renewable energy sources. Additionally, implementing effective water management practices, such as conservation measures, efficient irrigation systems, and the protection of water sources, can help preserve and sustain freshwater resources in the face of climate change and carbon emissions.

Q: Iron and steel are different in terms of carbon content: . An iron carbon alloy with a carbon content of less than 2% is a steel, and a carbon content of more than 2% is called iron. Steel is widely used because of its toughness, elasticity and rigidity. Life is exposed to steel, but people call different. For stainless steel, whether or not the magnet is sucked on or not, as long as the quality standards are met, it is stainless steel. Therefore, from the perspective of metallurgy said, no rust said. The main element of stainless steel corrosion resistance is chromium. If the content of chromium is above 10.5%, the steel will not rust. When smelting, the alloy elements added are different, so there is a difference between the magnet and the suction.

Q: The home wants to install electricity to warm the floor, the metal heating cable certainly won't use to have radiation, but is carbon system carbon fiber good or carbon crystal good?: South Korea has a long history of electric heating, there is no domestic manufacturers have such technology! "Carbon crystal" is in the past two years, the domestic suddenly came out, it is estimated that dozens of homes!

Q: What is carbon fiber reinforced polymer?: Carbon fiber reinforced polymer (CFRP) is a composite material that combines carbon fibers with a polymer matrix, resulting in a strong and lightweight material. Carbon fibers are thin, strong, and composed of carbon atoms bonded together in a crystalline structure. These fibers are embedded in a polymer matrix, typically made of epoxy resin, which binds the fibers together and provides support. The combination of carbon fibers and polymer matrix results in a material that has a high strength-to-weight ratio, making it ideal for various applications. CFRP is known for its exceptional stiffness, strength, and resistance to corrosion and fatigue. It is extensively used in aerospace, automotive, sports equipment, and other industries where lightweight and high-performance materials are required. The unique properties of CFRP make it an excellent alternative to traditional materials like steel, aluminum, and fiberglass, providing superior strength and durability while significantly reducing weight.

Q: What is carbon sequestration?: Carbon sequestration is the process by which carbon dioxide (CO2) is captured from the atmosphere and stored for an extended period of time, preventing it from being released and contributing to climate change. This technique aims to reduce the concentration of CO2 in the atmosphere, as this greenhouse gas is a major driver of global warming. Carbon sequestration can occur naturally through biological processes, such as photosynthesis in plants and algae, or it can be achieved through various artificial methods. Natural carbon sequestration occurs when plants, trees, and other vegetation absorb CO2 during photosynthesis and store it in their tissues. This process, known as terrestrial sequestration, plays a crucial role in reducing atmospheric CO2 levels. Additionally, oceans also act as a significant sink for CO2, absorbing and storing vast amounts of it. This is referred to as oceanic sequestration. Artificial carbon sequestration techniques involve capturing CO2 emissions from industrial processes, power plants, and other sources before they are released into the atmosphere. There are several methods for carbon capture, including pre-combustion capture, post-combustion capture, and oxy-fuel combustion. Once the CO2 is captured, it can be transported and stored underground in geological formations, such as depleted oil and gas fields or saline aquifers. This process is commonly known as carbon capture and storage (CCS) or carbon capture utilization and storage (CCUS). Carbon sequestration has gained significant attention due to its potential to mitigate climate change. By reducing the amount of CO2 in the atmosphere, it helps to slow down the pace of global warming and reduce the impacts of climate change. It is considered to be a crucial part of the broader strategy to achieve net-zero emissions, as it not only reduces future emissions but also removes CO2 that has already been emitted. However, carbon sequestration is not a silver bullet solution to climate change. It should be seen as a complementary approach to other mitigation efforts, such as transitioning to renewable energy sources and improving energy efficiency. Additionally, the long-term storage of CO2 requires careful monitoring and management to ensure its effectiveness and prevent any leakage or environmental risks. Overall, carbon sequestration is a vital tool in the fight against climate change, offering the potential to reduce greenhouse gas emissions and contribute to a more sustainable future.

Q: How does carbon affect the formation of wildfires?: Carbon does not directly affect the formation of wildfires, but it plays a crucial role in their intensity and duration. Carbon is a key component of organic matter, such as vegetation and dead plants, which serve as fuel for wildfires. When a wildfire occurs, the heat causes the carbon in these fuels to combine with oxygen, resulting in the process of combustion. This combustion releases energy in the form of heat, light, and gases, including carbon dioxide (CO2) and carbon monoxide (CO). The presence of carbon-rich fuels significantly contributes to the spread and intensity of wildfires. Dry and dead vegetation, often referred to as fuel loads, are highly flammable and allow fires to rapidly spread. Additionally, the carbon content in these fuels determines the amount of energy released during combustion. Consequently, the more carbon-rich the fuel, the more intense the fire will be. Moreover, the combustion of carbon during wildfires releases significant amounts of carbon dioxide into the atmosphere. Carbon dioxide is a greenhouse gas, which traps heat in the Earth's atmosphere and contributes to the greenhouse effect, leading to global warming. Increased levels of carbon dioxide in the atmosphere exacerbate climate change, further influencing the frequency and severity of wildfires. In summary, carbon indirectly affects the formation of wildfires by serving as fuel for combustion. The carbon content in vegetation and dead plants determines the intensity and spread of wildfires, while the release of carbon dioxide during combustion contributes to the long-term impact of wildfires on climate change.

Q: How does carbon impact the fertility of soil?: Soil fertility relies heavily on carbon, which serves as the foundation for organic matter. Organic matter, derived from decaying plant and animal residues, enhances the soil's structure, nutrient-holding capacity, and water retention. This results in improved support for plant growth and microbial activity. Not only does organic matter supply carbon, but it also provides nutrients to plants through the process of decomposition. Microorganisms, fungi, and bacteria decompose organic matter and release nutrients like nitrogen, phosphorus, and potassium into the soil. These nutrients become available for plants to absorb. Additionally, carbon in organic matter binds soil particles, preventing erosion and improving soil structure. Furthermore, carbon plays a crucial role in water management for plants. It acts as a sponge, absorbing and retaining moisture, which helps sustain plant growth during dry periods. Carbon also fosters the growth of a diverse and healthy microbial community in the soil, including beneficial bacteria and fungi. These microorganisms contribute to nutrient cycling, disease suppression, and plant nutrient uptake, further enhancing soil fertility. However, it is important to avoid excessive carbon inputs or improper land management practices, as they can negatively affect soil fertility. An imbalance in carbon availability can lead to nitrogen immobilization, where microorganisms consume nitrogen for their own growth, depriving plants of this essential nutrient. Additionally, high carbon content can create anaerobic conditions, limiting oxygen availability for plant roots and beneficial soil organisms. To ensure optimal soil fertility, it is crucial to maintain a balanced carbon-to-nitrogen ratio and adopt sustainable land management practices. Carbon is an indispensable component for maintaining soil health by improving structure, nutrient availability, water retention, and microbial activity.

Q: What are carbon nanomaterials?: At the nanoscale, carbon nanomaterials are composed of carbon atoms arranged in different structures. These structures encompass carbon nanotubes, fullerenes, and graphene. Carbon nanotubes are cylindrical in shape, consisting of rolled-up graphene sheets. Fullerenes, on the other hand, are closed-cage molecules made up of carbon atoms. Graphene is a single layer of carbon atoms arranged hexagonally. The unique properties of carbon nanomaterials make them highly desirable for various applications. They possess exceptional mechanical strength, high electrical and thermal conductivity, and excellent chemical stability. These properties are a result of the strong covalent bonds between carbon atoms and the specific arrangements of these atoms in the nanoscale structures. Carbon nanomaterials have found numerous applications across different fields due to their remarkable characteristics. In electronics and computing devices, their high electrical conductivity and small size make them ideal for creating faster, smaller, and more efficient components. Composite materials benefit from the use of carbon nanotubes, as they enhance mechanical strength and durability. Moreover, carbon nanomaterials show promise in the field of medicine and healthcare. They can be utilized in drug delivery systems to encapsulate and transport drugs to specific targets in the body. Additionally, their antibacterial properties make them potential candidates for developing antimicrobial coatings and surfaces. Overall, carbon nanomaterials are a diverse class of materials with exceptional properties. These properties have resulted in exciting applications across various industries. As research continues, their potential uses are likely to expand, revolutionizing fields such as electronics, medicine, and materials science.

Q: How is carbon used in the production of activated carbon filters?: Various industries and applications widely utilize activated carbon filters. These filters are utilized in water and air purification, gas masks, and even in the production of certain chemicals. The effectiveness of activated carbon filters heavily relies on the role of carbon in their production. Activated carbon, also referred to as activated charcoal, is a type of carbon that possesses a highly porous structure and a large surface area. The creation of this porous structure is achieved through a process known as activation. Activation involves subjecting carbonaceous materials, such as coal, wood, or coconut shells, to high temperatures in the presence of steam or specific chemicals. This activation process generates tiny pores and significantly increases the carbon's surface area. Consequently, the carbon becomes adept at capturing and eliminating impurities from gases or liquids. The activated carbon's high adsorption capacity attracts impurities like organic compounds, volatile organic compounds (VOCs), and certain heavy metals to its surface. In the production of activated carbon filters, the activated carbon is commonly molded into a granular or powdered state and then packed into a filter medium, such as a mesh or a cartridge. The filter medium functions as a supportive structure for the activated carbon, enabling the passage of air or water while effectively capturing and adsorbing impurities. Activated carbon filters excel at eliminating a wide array of contaminants, including chlorine, volatile organic compounds (VOCs), odors, and specific heavy metals. Consequently, these filters greatly enhance the quality of water and air by reducing pollutants and improving odor control. Furthermore, the versatility of activated carbon allows for customization based on the specific application. For instance, activated carbon can be infused with specific chemicals to heighten its adsorption capacity for particular contaminants. It can also be specially treated to target pollutants like mercury or arsenic. In conclusion, the utilization of carbon in the production of activated carbon filters stems from its porous structure and exceptional adsorption properties. These filters play a vital role in numerous industries and applications, effectively eliminating impurities from water and air, improving their quality, and ultimately benefiting environmental and human health.

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