Calcined Petroleum Coke as Injection Coke for Foundry Use

Calcined Petroleum Coke as Injection Coke for Foundry Use

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 20.4

Supply Capability:: 1014 m.t./month

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Intrduction

Carbon additive to ningxia production of anthracite as raw material, after washing, crushing, high temperature calcination, filter, etc. Craft refined and become.This is after the anthracite calcination generated high carbon content and low volatile component of the new product, is an ideal raw material to make steel.

Calcined Petroleum Coke comes from delayed coke which extracted from oil refinery. Although Calcined Petroleum Coke contains a little bit higher level of sulfur and nitrogen than pitch coke, the price advantage still makes it widely used during steel-making and founding as a kind of carbon additive/carburant.

Features
In the smelting process for reducing agent. Performance: replace the traditional oil carbon additive, decrease the cost of steelmaking. Features: low ash. low sulfur,low phosphorus, high calorific value. High ratio resistance,high mechanical strength,high chemistry activity. It is mainly used for metallurgy reductant inoculants, casting, refractory materials, machinery, electronics and other fields.Good quality

1) high absorption rate, it can be absorbed up to 90%.
2) absorbed more quickly than other carbon additive; no residue remains in furnace.
3) low Sulfur, the lowest can reach below 0.20%; low nitrogen, normally below 200ppm (0.02%)

Specifications

Products	CPC
F.C.%	98.5MIN	98.5MIN	98MIN
ASH %	0.8MAX	0.8MAX	1MAX
V.M.%	0.7 MAX	0.7 MAX	1 MAX
SULFUR %	0. 5MAX	0. 7MAX	1MAX
MOISTURE %	0.5MAX	0.5MAX	1MAX

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Calcined Petroleum Coke as Injection Coke for Foundry Use

FAQ:

(1)CPC could be as fuel

Petroleum coke is a material relatively low in cost and high in heat value and carbon content with good chemical stability, making it an efficient and costeffective fuel for producing metal, brick and related products.

(2)CPC could be as Graphite Electrodes

Graphite can be produced from lowsulfur needle petroleum coke, which must be heated above 5,432 degrees Fahrenheit.

(3)CPC could be as Anodes

Calcined petroleum coke, often low in sulfur and metallic impurities, is used to make anodes for

the smelting industry.Calcined petroleum coke is mixed with coal tar pitch in the production of

anodes.

Q:How does carbon affect the taste of food and beverages?: Carbon, in the form of activated charcoal or carbonation, can significantly affect the taste of food and beverages. Activated charcoal is known for its ability to absorb impurities and toxins, making it a popular ingredient in various food and drink products. When added to food and beverages, activated charcoal can help remove unpleasant odors and flavors, resulting in a cleaner and more enjoyable taste. In terms of carbonation, it is widely used in beverages to create fizziness and enhance the overall sensory experience. Carbon dioxide gas is dissolved in liquids under pressure, which creates bubbles when the pressure is released, giving the drink a refreshing and effervescent quality. This carbonation effect can add a tangy or slightly acidic taste to the beverage, which is often considered pleasant and invigorating. Moreover, carbonation can also influence the taste of food. For example, the carbonation present in beer or sparkling wine can help cut through the richness of certain dishes, balancing flavors and providing a more refreshing palate cleanse. Carbonation can also be added to certain foods, such as bread or pastry dough, helping them rise and creating a lighter texture. It is important to note that while carbon can enhance the taste of food and beverages, its impact can vary depending on the specific application and concentration used. Additionally, the taste of carbon in food and beverages is subjective, and some people may prefer non-carbonated or charcoal-free options. Ultimately, the use of carbon in culinary applications offers a wide range of possibilities for taste enhancement and sensory experiences.

Q:How does carbon affect the melting of polar ice caps?: Carbon affects the melting of polar ice caps by contributing to global warming. As carbon dioxide levels increase in the atmosphere, it acts as a greenhouse gas, trapping heat and causing the Earth's temperature to rise. This leads to the melting of polar ice caps, as the increased temperatures accelerate the melting process, causing the ice to melt at a faster rate.

Q:What is carbon offsetting in the energy sector?: Carbon offsetting in the energy sector refers to the practice of compensating for the greenhouse gas emissions produced by energy generation and consumption activities. It involves investing in projects or initiatives that reduce or remove carbon dioxide (CO2) or other greenhouse gas emissions from the atmosphere, with the aim of balancing out the emissions being released into the atmosphere. The energy sector is a significant contributor to global greenhouse gas emissions, particularly through the burning of fossil fuels such as coal, oil, and natural gas. Carbon offsetting in this sector aims to mitigate the environmental impact of these emissions by funding projects that promote renewable energy, energy efficiency, and other carbon reduction measures. There are various types of projects that can be supported through carbon offsetting in the energy sector. For example, investments can be made in renewable energy projects like wind farms, solar power plants, or hydropower facilities, which generate clean energy without emitting greenhouse gases. These projects help to displace fossil fuel-based energy sources, reducing overall emissions from the energy sector. Additionally, energy efficiency projects can be supported through carbon offsetting. These initiatives focus on reducing energy consumption by implementing energy-efficient technologies, improving insulation, or optimizing industrial processes. By reducing the amount of energy needed, these projects indirectly lead to lower greenhouse gas emissions. Furthermore, carbon offsetting in the energy sector can also involve the support of initiatives that remove carbon dioxide from the atmosphere. These projects often include reforestation or afforestation efforts, which involve planting trees or restoring degraded forests. Trees absorb and store carbon dioxide through photosynthesis, helping to offset emissions and counteract climate change. Overall, carbon offsetting in the energy sector plays a crucial role in transitioning to a more sustainable and low-carbon future. By investing in projects that reduce or remove greenhouse gas emissions, it allows individuals, organizations, and governments to take responsibility for their carbon footprint and contribute to global efforts in combating climate change.

Q:How does carbon impact the availability of clean transportation?: Carbon emissions from burning fossil fuels contribute to climate change, which affects the availability of clean transportation. Increased levels of carbon dioxide in the atmosphere trap heat, leading to rising global temperatures and extreme weather events. This, in turn, impacts the infrastructure necessary for clean transportation, such as roads, bridges, and railways. Additionally, carbon-intensive transportation systems, like gasoline-powered vehicles, contribute to air pollution, which further hinders the development and adoption of cleaner transportation alternatives like electric vehicles.

Q:What are the advantages of carbon-based fertilizers?: There are several advantages of carbon-based fertilizers that make them a popular choice among farmers and gardeners. Firstly, carbon-based fertilizers such as compost and manure are organic in nature, which means they are derived from natural sources and do not contain synthetic chemicals. This makes them environmentally friendly and reduces the risk of water pollution or soil degradation. Secondly, carbon-based fertilizers are rich in organic matter, which improves the soil structure and enhances its ability to retain water. This can be particularly beneficial in areas with low soil fertility or frequent droughts, as it helps to conserve moisture and prevent nutrient leaching. Furthermore, carbon-based fertilizers promote the growth of beneficial microorganisms in the soil. These microorganisms break down organic matter and release essential nutrients in a slow and gradual manner, ensuring a steady supply of nutrients to the plants. This improves overall plant health and reduces the risk of nutrient imbalances or deficiencies. Additionally, carbon-based fertilizers are cost-effective in the long run. While they may require more initial effort and time to produce or source, they can be produced on-site through composting or obtained from local sources such as farms or livestock operations. This reduces the need for expensive chemical fertilizers and minimizes transportation costs. Lastly, carbon-based fertilizers contribute to carbon sequestration and help combat climate change. By using organic waste materials as fertilizers, we divert them from landfills where they would emit greenhouse gases. Instead, they are recycled back into the soil, increasing its carbon content and promoting soil health. Overall, carbon-based fertilizers offer numerous advantages in terms of sustainability, soil fertility, cost-effectiveness, and environmental impact. Their use can contribute to healthier plants, improved soil quality, and a more sustainable and resilient agricultural system.

Q:How does carbon impact the stability of tundra ecosystems?: The stability of tundra ecosystems is impacted by carbon in several ways. To begin with, carbon is essential for the formation and development of tundra soils. When plants in the tundra grow and undergo photosynthesis, they absorb carbon dioxide from the atmosphere and convert it into organic matter. This organic matter eventually decomposes, adding carbon to the soil and creating a layer of permafrost rich in organic material. This layer of permafrost helps to stabilize the ecosystem. Furthermore, carbon in the form of vegetation acts as a protective layer against erosion in tundra ecosystems. The dense cover of mosses, lichens, and shrubs holds the soil in place, preventing it from being washed away by wind or water. This stabilization is crucial in the tundra, where plant growth and soil development are limited by cold temperatures and short growing seasons. Moreover, the stability of tundra ecosystems is influenced by the release of greenhouse gases, such as carbon dioxide and methane, from the melting permafrost. As global temperatures rise, the permafrost thaws and releases stored carbon into the atmosphere. This process creates a feedback loop, as the released carbon contributes to further warming, which accelerates permafrost thawing. This feedback loop has the potential to disrupt tundra ecosystems by altering the balance of plant and animal life, disrupting nutrient cycling, and increasing the risk of wildfires. In conclusion, carbon plays a vital role in maintaining the stability of tundra ecosystems by contributing to soil formation, preventing erosion, and regulating greenhouse gas emissions. It is crucial to understand and manage carbon dynamics in the tundra in order to preserve these unique and delicate ecosystems in the face of climate change.

Q:What is the symbol for carbon?: The symbol for carbon is "C".

Q:How is carbon used in the production of fuels?: Carbon is a critical element in the production of fuels, as it is the main component of fossil fuels such as coal, oil, and natural gas. These fuels are formed from the organic remains of plants and animals that lived millions of years ago. The process of carbonization or carbonization involves subjecting these organic materials to high pressure and temperature over a long period, which transforms them into hydrocarbon-rich substances. Coal, for example, is primarily composed of carbon, along with small amounts of other elements. When coal is burned, this carbon reacts with oxygen, releasing energy in the form of heat. This heat can then be utilized to produce steam, which drives turbines to generate electricity or to power engines in various industries. Similarly, oil and natural gas, which are also predominantly composed of carbon, are extracted from underground reservoirs. These hydrocarbons can be processed through refining to produce various types of fuels, such as gasoline, diesel, and jet fuel. The combustion of these fuels in engines or power plants allows for energy release, enabling transportation and the generation of electricity. In addition to fossil fuels, carbon is also used in the production of alternative fuels like biofuels. Biofuels are produced from renewable sources such as plants, algae, or agricultural waste. The carbon contained in these organic materials can be converted into ethanol or biodiesel through processes like fermentation or transesterification, respectively. These biofuels can then be used as substitutes for conventional fossil fuels, reducing greenhouse gas emissions and dependence on non-renewable resources. Overall, carbon is an essential component in the production of fuels, whether derived from fossil fuels or renewable sources. Its combustion releases energy, which is harnessed for various purposes, including electricity generation, transportation, and industrial processes. However, it is important to explore and adopt sustainable alternatives to fossil fuels, such as biofuels and renewable energy sources, to mitigate the negative environmental impacts associated with carbon emissions.

Q:What are the effects of carbon emissions on human respiratory health?: Human respiratory health can be significantly affected by carbon emissions. Carbon dioxide (CO2) is a primary component of carbon emissions and contributes to both air pollution and climate change. The presence of high levels of carbon dioxide in the atmosphere can result in the concentration of other pollutants like nitrogen oxides, sulfur dioxide, and particulate matter increasing. Exposure to these pollutants, particularly fine particulate matter (PM2.5), has been associated with various respiratory issues. Inhaling PM2.5 can cause irritation in the airways, leading to symptoms such as coughing, wheezing, and breathlessness. It can also worsen existing respiratory conditions like asthma, chronic obstructive pulmonary disease (COPD), and bronchitis. Long-term exposure to elevated levels of PM2.5 has been linked to the development of respiratory diseases and can contribute to higher hospital admissions and mortality rates. Moreover, carbon emissions contribute to the creation of ground-level ozone, a harmful pollutant that plays a significant role in smog formation. Ozone can cause inflammation and damage to the respiratory system, resulting in respiratory symptoms and reduced lung function. It can also aggravate pre-existing respiratory conditions and increase the susceptibility to respiratory infections. Apart from these direct effects, carbon emissions also contribute to climate change, which indirectly impacts respiratory health. Climate change can lead to more frequent heatwaves and extreme weather events, which can worsen air quality and trigger respiratory symptoms. It can also alter the distribution of allergens like pollen, mold spores, and dust mites, thereby increasing the prevalence of respiratory allergies and asthma. Overall, carbon emissions have substantial adverse effects on human respiratory health. They contribute to air pollution, which can cause respiratory symptoms, worsen existing respiratory conditions, and elevate the risk of developing respiratory diseases. Additionally, they contribute to climate change, which indirectly affects respiratory health by influencing air quality and the prevalence of allergens. Therefore, reducing carbon emissions and improving air quality are vital for safeguarding and promoting respiratory health.

Q:How does carbon affect the formation of smog?: Carbon plays a significant role in the formation of smog through the process of photochemical reactions. When carbon-based pollutants, such as automobile exhaust and industrial emissions, are released into the atmosphere, they can undergo reactions with other pollutants and sunlight. This leads to the production of ground-level ozone, a key component of smog. Additionally, carbon-containing compounds can contribute to the formation of particulate matter, which further exacerbates smog formation.

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