FC 93% GAS Calcined Anthracite

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Payment Terms:: TT or LC

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FC 93% GAS Calcined Anthracite

Date Sheet For Your Reference:

F.C	S	ASH	V.M	MOISTURE
96%MIN	0.18%MAX	2.5%MAX	1.2%MAX	0.3%MAX
95%MIN	0.25%MAX	4%MAX	1.2%MAX	0.5%MAX
94%MIN	0.3%MAX	4.5%MAX	1.2%MAX	0.5%MAX
93%MIN	0.3%MAX	5.5%MAX	1.2%MAX	0.5%MAX
92%MIN	0.3%MAX	6.5%MAX	1.2%MAX	0.5%MAX
91%MIN	0.3%MAX	7.5%MAX	1.5%MAX	0.5%MAX
90%MIN	0.35%MAX	8.5%MAX	1.5%MAX	0.5%MAX

Application

1. This product can be used in steel producing as a kind of carbon additive
2. We can get high quality steel if use it.
3. It can also be used in special steel producing and casting or other related industry
4. It can be used as carbon raiser (Recarburizer) to produce high quality steel, cast iron and alloy.
5. It can also be used in plastic and rubber as an additive.
6. Used as carbon raiser (Recarburizer) to produce high quality steel, cast iron and alloy.

7. It can also be used in plastic and rubber as an additive.

Package:

1) 1mt jumbo bag

2) Only25kgs small bags

3) 25kgs*40 in 1mt jumbo bags

4) Size:1-4mm 1-3mm 1-5mm 2-6mm 3-5mm 1-10mm

5) We can produce as customer’s requirement

6) Delivery time:15day against contract

7) Proction Ability:1000mt/month

Why Choose Calcined Anthracite ?

It may substitute massively refinery coke or the stone grinds.

Its cost is much less than the refinery coke and the stone grinds.

Use as the fuel, its calorific value achieve above 9386K/KG. It substitute burnt carbon massively.

Burnt carbon export have quota;so the carbon additive price superiority is similarly obvious.

Pictures of Calcined Anthracite:

Q: How does carbon affect the pH of water bodies?: Carbon can have a significant impact on the pH of water bodies. When carbon dioxide (CO2) from the atmosphere dissolves in water, it forms carbonic acid (H2CO3). This process is known as carbonation and occurs naturally in water bodies. Carbonic acid is a weak acid and it plays a crucial role in buffering the pH of water bodies. The presence of carbonic acid in water can lower the pH, making it more acidic. This is because carbonic acid dissociates into hydrogen ions (H+) and bicarbonate ions (HCO3-). The higher the concentration of hydrogen ions, the lower the pH of the water. Therefore, carbonic acid contributes to the acidity of water bodies. Additionally, carbonic acid can undergo further dissociation to form carbonate ions (CO32-). These carbonate ions can react with hydrogen ions, effectively reducing the concentration of hydrogen ions and increasing the pH of the water. This process is called carbonation and it acts as a buffer, helping to stabilize the pH of the water. Human activities, such as burning fossil fuels and deforestation, release excessive amounts of carbon dioxide into the atmosphere. This leads to an increase in the concentration of carbonic acid in water bodies, which in turn lowers the pH. This phenomenon is known as ocean acidification and it can have detrimental effects on marine life. Decreased pH caused by excess carbon can harm aquatic organisms, especially those with calcium carbonate shells, such as corals, mollusks, and some plankton species. The more acidic water dissolves their shells, making them more vulnerable to predation and reducing their ability to build and maintain their protective structures. In conclusion, carbon can significantly affect the pH of water bodies through the formation of carbonic acid. While carbonic acid contributes to the acidity of water, it also acts as a buffer, helping to stabilize the pH. However, excessive carbon dioxide emissions from human activities can lead to ocean acidification, impacting marine life and the overall health of water ecosystems.

Q: How does carbon affect the quality of indoor air?: Carbon can have a significant impact on the quality of indoor air as it is emitted from various sources such as burning fossil fuels, cooking, and smoking. High levels of carbon can lead to poor air quality, causing symptoms like headaches, dizziness, and fatigue. Additionally, carbon monoxide, a toxic gas produced by incomplete combustion, can be lethal in enclosed spaces. Therefore, it is crucial to properly ventilate and monitor indoor areas to mitigate the negative effects of carbon on indoor air quality.

Q: How many electrons does carbon have?: Carbon has six electrons.

Q: How does carbon impact the fertility of soil?: Carbon plays a crucial role in the fertility of soil as it is the foundation of organic matter, which is vital for soil health and productivity. When carbon-rich organic matter, such as decaying plant and animal residues, is added to the soil, it helps improve its structure, nutrient-holding capacity, and water retention. This, in turn, enhances the soil's ability to support plant growth and sustain microbial activity. Organic matter serves as a source of carbon for soil microorganisms, fungi, and bacteria, which decompose it and release nutrients for plants. This decomposition process, known as mineralization, releases essential macronutrients (nitrogen, phosphorus, and potassium) and micronutrients into the soil, making them available for plant uptake. Additionally, carbon in organic matter helps bind soil particles together, improving soil structure and preventing erosion. Moreover, carbon improves the soil's water-holding capacity, reducing the risk of drought stress for plants. It acts as a sponge, absorbing and retaining moisture, which helps to sustain plant growth during dry periods. Carbon also promotes the development of a healthy and diverse soil microbial community, including beneficial bacteria and fungi. These microorganisms enhance nutrient cycling, disease suppression, and plant nutrient uptake, further contributing to soil fertility. However, excessive carbon inputs, such as from excessive organic matter addition or improper land management practices, can have negative effects on soil fertility. An imbalance in carbon availability can lead to nitrogen immobilization, where soil microorganisms consume nitrogen for their own growth, depriving plants of this essential nutrient. Additionally, high carbon content can create anaerobic conditions, reducing the availability of oxygen for plant roots and beneficial soil organisms. In summary, carbon is essential for maintaining soil fertility as it improves soil structure, nutrient availability, water retention, and microbial activity. However, it is crucial to maintain a balanced carbon-to-nitrogen ratio and adopt sustainable land management practices to ensure the optimal fertility of soil.

Q: How does carbon dioxide affect the formation of smog?: Carbon dioxide (CO2) does not directly contribute to the formation of smog. Smog is primarily formed by the interaction of sunlight with other pollutants such as nitrogen oxides (NOx) and volatile organic compounds (VOCs). These pollutants are emitted from various sources including vehicles, industrial processes, and power plants. However, while carbon dioxide does not directly participate in smog formation, it does play a significant role in contributing to climate change. CO2 is a greenhouse gas, meaning it traps heat in the Earth's atmosphere and contributes to the warming of the planet. As the Earth warms, it can lead to changes in weather patterns, resulting in more stagnant air conditions that can exacerbate smog formation. Additionally, the burning of fossil fuels, which releases carbon dioxide, is a major source of air pollutants like NOx and VOCs. So while CO2 itself may not directly contribute to smog formation, the activities that release CO2 can indirectly contribute to smog by releasing other pollutants that are involved in its formation. Therefore, the impact of carbon dioxide on smog formation is indirect, primarily through its contribution to climate change and the release of other pollutants. Reducing carbon dioxide emissions and transitioning to cleaner energy sources can help mitigate climate change and indirectly reduce the factors that contribute to smog formation.

Q: How is carbon used in the production of nanotubes?: Due to its distinctive characteristics and its capacity to establish robust covalent bonds, carbon is widely utilized in the manufacturing of nanotubes. Nanotubes are cylindrical arrangements composed entirely of carbon atoms that are organized in a hexagonal lattice. Two primary methods are employed to produce nanotubes: arc discharge and chemical vapor deposition (CVD). In the arc discharge technique, a high voltage is applied in an inert gas environment, causing a plasma arc of high temperature to form between two graphite electrodes. This arc vaporizes the carbon source material, and as the vaporized carbon atoms cool down, they condense and align themselves into nanotubes. This process enables the controlled creation of multi-walled carbon nanotubes (MWCNTs), which consist of concentric tubes nested within each other. On the contrary, chemical vapor deposition involves the decomposition of carbon-containing gases, such as methane or ethylene, on a catalyst surface at elevated temperatures. The catalyst, typically composed of transition metals like iron, nickel, or cobalt, facilitates the growth of nanotubes by providing active sites for carbon atoms to attach and form tubular structures. Depending on the reaction conditions, the resulting nanotubes can be either single-walled (SWCNTs) or multi-walled. In both methods, carbon serves as an essential building block. Its exceptional carbon-carbon bonding nature enables the creation of sp2 hybridized carbon atoms, resulting in a sturdy and stable lattice structure. This structure imparts nanotubes with outstanding mechanical, electrical, and thermal properties, making them highly sought after in various fields such as electronics, materials science, and medicine. Additionally, carbon's versatility allows for the production of functionalized nanotubes by incorporating other elements or molecules into their structure. This is accomplished through chemical modification of the carbon framework, which permits the attachment of diverse functional groups or nanoparticles. Functionalized nanotubes can exhibit improved properties or be customized for specific applications, further underscoring the significance of carbon in nanotube production. In conclusion, carbon plays a crucial role in the production of nanotubes, owing to its unique properties, ability to form strong covalent bonds, and versatility. It serves as the ideal building block for creating these remarkable structures with a wide range of applications.

Q: What does "carbon neutrality" mean?: Carbon neutral (Carbon, Neutral)The new Oxford English dictionary published in 2006 annual vocabulary "Carbon Neutral", Chinese translated as "carbon neutral", global warming and carbon dioxide emissions are closely related, "carbon neutral" refers to the total emissions of carbon dioxide is calculated, and then put these emissions by planting digest compensation, do not give the earth additional greenhouse gas emissions (mainly including carbon dioxide, methane etc.) burden, achieve the purpose of environmental protection.

Q: What is sintered carbon?: Sintered carbon is generally used as a filter element, and also of good quality, but very few, most of which are of poor quality.Sintering is the process in which powder or powder compacts are heated to a temperature below the melting point of the basic component and then cooled to room temperature at a certain rate and speed. The result of sintering is bonding between the powder particles, increasing the strength of the sintered body, and changing the aggregate of the powder particles into agglomerates of grain to obtain the desired physical or mechanical properties of the product or material.The sintering process refers to the processing program and the sintering process system selected according to the characteristics of the feedstock. It has a direct and important influence on the production and quality of sinter production.

Q: What are the main sources of carbon on Earth?: The main sources of carbon on Earth are the atmosphere, oceans, geological processes, and living organisms.

Q: What is carbon neutral tourism?: Carbon neutral tourism refers to a form of tourism that aims to minimize or eliminate the carbon footprint generated by travel and related activities. It is an approach that seeks to balance the amount of carbon dioxide released into the atmosphere with an equivalent amount of carbon dioxide removed or offset. To achieve carbon neutrality, tourism operators and destinations take various measures to reduce their greenhouse gas emissions. This can include using renewable energy sources, implementing energy-efficient practices, promoting sustainable transport options, and adopting eco-friendly technologies. Additionally, carbon offsetting is often employed, which involves investing in projects that reduce greenhouse gas emissions elsewhere, such as reforestation or renewable energy initiatives. The concept of carbon neutral tourism recognizes the significant contribution of the travel and tourism industry to global carbon emissions. According to the United Nations World Tourism Organization, tourism accounts for around 8% of global greenhouse gas emissions. By embracing carbon neutrality, the industry acknowledges its responsibility to minimize its environmental impact and contribute to climate change mitigation efforts. One of the key benefits of carbon neutral tourism is the reduction of greenhouse gas emissions, which helps combat climate change. By adopting sustainable practices and offsetting remaining emissions, destinations and operators can play a crucial role in preserving natural resources, protecting biodiversity, and minimizing pollution. Moreover, carbon neutral tourism can also enhance the reputation and competitiveness of businesses and destinations, attracting environmentally conscious travelers who prioritize sustainability. However, it is important to note that achieving carbon neutrality is a complex task that requires commitment and collaboration from all stakeholders involved in the tourism industry. It involves measuring and monitoring emissions, setting reduction targets, implementing sustainable practices, and investing in carbon offset projects. Moreover, transparency and credibility are crucial in ensuring that carbon offset initiatives are verifiable and contribute to real emissions reductions. In conclusion, carbon neutral tourism is a proactive approach to minimize the environmental impact of travel and tourism activities. It involves reducing emissions and offsetting remaining ones to achieve a net-zero carbon footprint. By embracing carbon neutrality, the tourism industry can contribute to global climate change mitigation efforts while simultaneously promoting sustainable practices and attracting environmentally conscious travelers.

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