• Recarburizer Graphite Petroleum Coke 93% 94% Calcined anthracite System 1
  • Recarburizer Graphite Petroleum Coke 93% 94% Calcined anthracite System 2
  • Recarburizer Graphite Petroleum Coke 93% 94% Calcined anthracite System 3
  • Recarburizer Graphite Petroleum Coke 93% 94% Calcined anthracite System 4
Recarburizer Graphite Petroleum Coke 93% 94% Calcined anthracite

Recarburizer Graphite Petroleum Coke 93% 94% Calcined anthracite

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Loading Port:
Dalian
Payment Terms:
TT OR LC
Min Order Qty:
10 m.t
Supply Capability:
500000 m.t/month

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Specification:


Low Sulphur Calcined Petroleum Coke/Calcined Anthracite /CPC

We can manufacture the high quality product according to customers' requirements or drawings

  

 

Advantage:


- Reduce energy consumption

- Reduce recarburizer consumption

- Reduce scrap rate

- Reduce tap to tap time

- Reduce scrap rate

We can offer carburant in differnt types,whenever you need,just feel free to contact us

 


Data Sheet:

NO.

Fixed Carbon

Sulphur

Moisture

Volatile

Graininess

>=

<=< span="">

<=< span="">

<=< span="">

Granularity distribution 90%

Oz1011

98.50%

0.05%

0.50%

0.50%

1-5mm

Oz1012

98.50%

0.50%

0.50%

0.80%

1-5mm

Oz1013

95.00%

0.30%

0.26%

1.14%

1-4mm

Oz1014

90.00%

0.30%

0.30%

0.90%

1-5mm

Oz1015

80.00%

0.20%

1.30%

3.50%

1-5mm


 
 

 



Q:How does carbon affect the formation of desertification?
Carbon does not directly affect the formation of desertification. Desertification is mainly caused by a combination of natural factors such as climate change, prolonged drought, and human activities like deforestation and overgrazing. However, carbon indirectly plays a role in exacerbating desertification through climate change. Carbon dioxide (CO2) is a greenhouse gas that is released into the atmosphere through human activities, primarily the burning of fossil fuels. The increased concentration of CO2 in the atmosphere leads to global warming, which alters climate patterns and increases the frequency and intensity of droughts. Prolonged droughts can cause soil moisture depletion, making the land more susceptible to erosion and degradation, thus contributing to the desertification process. Moreover, carbon indirectly affects desertification through deforestation. Trees and other vegetation play a crucial role in maintaining healthy soil by preventing erosion, retaining moisture, and providing shade. When forests are cleared, the carbon stored in trees is released into the atmosphere, contributing to increased CO2 levels. Additionally, the loss of vegetation cover exposes the soil to erosion by wind and water, accelerating desertification. It is important to note that while carbon indirectly impacts desertification through climate change and deforestation, desertification itself is a complex process influenced by various factors. Addressing desertification requires a comprehensive approach that involves sustainable land management practices, reforestation efforts, water management, and climate change mitigation strategies.
Q:How does carbon affect the formation of tsunamis?
Carbon does not directly affect the formation of tsunamis. Tsunamis are primarily caused by underwater earthquakes, volcanic eruptions, or landslides. Carbon, in the form of carbon dioxide (CO2), is a greenhouse gas that contributes to global warming and climate change. While carbon emissions and the resulting climate change can impact ocean temperatures and sea levels, they do not directly trigger the formation of tsunamis. However, it is important to note that climate change can indirectly influence the intensity and frequency of natural disasters, including tsunamis, through its impact on oceanic and atmospheric conditions. Rising sea levels caused by melting glaciers and polar ice can potentially increase the destructive power of tsunamis by allowing them to reach further inland. Additionally, climate change can affect the frequency and magnitude of earthquakes and volcanic activity, which are the primary triggers of tsunamis. Therefore, while carbon emissions do not directly affect tsunami formation, their impact on climate change can indirectly influence the factors that contribute to the occurrence and severity of tsunamis.
Q:Carbon emissions trading stocks latest list of carbon emissions trading stocks what?
A stock market, stocks are likely to benefit in power as far as (the company has the largest domestic operation of flue gas CO2 capture device, at the same time last year acquired 32% equity futures first thaw, layout carbon environmental protection index trading and futures trading market); chemat gas (with chemical gas as raw materials, annual production capacity of the largest food grade liquid CO2 the production of the enterprise);
Q:How is carbon used in the production of adhesives?
Carbon is used in the production of adhesives in several ways. One common method involves the use of carbon black, which is a fine powder made from the incomplete combustion of hydrocarbon fuels. Carbon black is added to adhesives to improve their strength, durability, and resistance to UV radiation. It acts as a reinforcing agent, increasing the adhesion and cohesion properties of the adhesive. Additionally, carbon fibers are sometimes incorporated into adhesives to further enhance their strength and mechanical properties. These fibers are made by heating and stretching synthetic fibers or natural materials like rayon or petroleum pitch. When added to adhesives, carbon fibers provide increased tensile strength and stiffness, making them ideal for applications that require high-performance adhesives. Moreover, carbon-based polymers, such as epoxies and polyesters, are widely used in adhesive formulations. These polymers are created through chemical reactions involving carbon-based monomers. They offer excellent bonding properties, high resistance to heat and chemicals, and can be tailored to specific application requirements. Furthermore, carbon-based resins can be modified with other additives and fillers to achieve specific characteristics, such as flexibility, impact resistance, or flame retardancy. In summary, carbon is utilized in the production of adhesives through the incorporation of carbon black, carbon fibers, and carbon-based polymers. These materials significantly enhance the strength, durability, and other properties of adhesives, making them suitable for a wide range of applications in industries such as automotive, construction, electronics, and aerospace.
Q:They include a cementite, two cementite, three cementite, eutectic cementite and eutectoid cementite, and compare their temperature, composition and morphology
A: cementite in iron graphite phase, carbon content more than 4.3%, in L (Fe + Fe3C) two-phase region crystallization of Fe3C as a primary cementite formation temperature in the eutectic temperature (1148 DEG C) above, morphology in large sheets (during eutectic organization). Carbon content from 4.3% to 6.69% is the typical composition range.
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:How is carbon used in the production of pigments?
Carbon is used in the production of pigments as a black colorant or as a base for creating various shades of gray. Carbon black, which is made by burning or decomposing organic materials, is commonly used as a pigment due to its intense black color. Additionally, carbon can be used to create different pigments by combining it with other elements or compounds, resulting in a wide range of colors for various applications in industries such as paints, inks, and plastics.
Q:What is the role of carbon in the human body?
Carbon plays a critical role in the human body as an essential element for all organic molecules, serving as the backbone for many biomolecules including carbohydrates, lipids, proteins, and nucleic acids, which are vital for various physiological processes. To begin with, carbohydrates, being the primary source of energy for the body, heavily depend on carbon. Glucose, a simple sugar consisting of carbon, hydrogen, and oxygen, undergoes cellular respiration within cells to release energy. Complex carbohydrates like glycogen, which are stored in the liver and muscles as an energy reserve, also rely on carbon for their structural composition. Moving on, lipids such as fats and oils contain carbon and serve multiple purposes including energy provision, insulation, and organ protection. Carbon atoms form long hydrocarbon chains in lipids, making them hydrophobic and enabling efficient energy storage and release. Lipids also play a crucial role in cell membrane structure and hormone production. Additionally, carbon is a fundamental component of proteins, which participate in almost all cellular processes. Proteins consist of amino acids, with carbon atoms forming the backbone of these amino acids, providing stability and flexibility to the protein structure. Carbon also contributes to the formation of peptide bonds, which connect amino acids to build proteins. Proteins are necessary for functions such as enzyme catalysis, molecule transport and storage, immune response, and cell signaling. Lastly, carbon is an indispensable element in nucleic acids such as DNA and RNA, which contain genetic information. Carbon atoms create the sugar-phosphate backbone of nucleic acids, ensuring structural stability. DNA carries hereditary information, while RNA plays a vital role in protein synthesis. In conclusion, carbon is crucial in the human body as it forms the foundation of organic molecules like carbohydrates, lipids, proteins, and nucleic acids. Its versatility and ability to form stable bonds allow for the diverse functions and structures necessary for life processes.
Q:What are the consequences of increased carbon emissions on educational systems?
Increased carbon emissions have profound consequences on educational systems. One of the major consequences is the negative impact on the health and well-being of students and teachers. Carbon emissions contribute to air pollution, which can lead to respiratory problems, allergies, and other health issues. This, in turn, affects attendance rates and overall student performance. Furthermore, the effects of climate change caused by carbon emissions, such as extreme weather events and rising temperatures, can disrupt educational infrastructure. Schools may be closed or damaged due to hurricanes, floods, or heatwaves, leading to a loss of instructional time and disruption to the learning environment. In addition, increased carbon emissions contribute to the depletion of natural resources, such as water and food, which can have severe consequences for educational systems. In regions heavily reliant on agriculture, climate change can disrupt food production and availability, leading to malnutrition and reduced cognitive development in children. Lack of access to clean water can also impact sanitation in schools, increasing the risk of diseases and impacting students' ability to concentrate and learn. Moreover, the consequences of increased carbon emissions extend beyond physical health and infrastructure. Climate change is a complex global issue that requires an understanding of scientific concepts and critical thinking skills to address. However, inadequate education on climate change and its causes can hinder students' ability to comprehend and respond to this pressing issue. Furthermore, the economic impacts of climate change resulting from increased carbon emissions can strain educational systems. Governments may have to divert resources away from education to address climate-related disasters and their aftermath. Limited funding for education can lead to reduced access to quality education, inadequate facilities, and lower teacher salaries, all of which can negatively impact the overall quality of education provided. In conclusion, increased carbon emissions have wide-ranging consequences on educational systems. From the health and well-being of students and teachers to disruptions in infrastructure and access to resources, the effects of carbon emissions can hinder educational outcomes. Addressing climate change and reducing carbon emissions is crucial not just for the environment but also for the future of education.
Q:What are the properties of carbon-based rubber?
Carbon-based rubber has several properties that make it a versatile and widely used material. Firstly, it has excellent elasticity and flexibility, allowing it to stretch and return to its original shape without deformation. Additionally, it is highly resistant to abrasion, making it durable and long-lasting. Carbon-based rubber is also known for its good electrical conductivity and thermal stability, making it suitable for applications in electrical insulation and high-temperature environments. Finally, it exhibits good chemical resistance, remaining unaffected by many oils, solvents, and chemicals. These properties make carbon-based rubber a preferred choice in various industries, including automotive, manufacturing, and construction.

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