Low Sulphur Calcined Petroleum Coke S 0.7

Low Sulphur Calcined Petroleum Coke S 0.7 System 1

Low Sulphur Calcined Petroleum Coke S 0.7

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 11 m.t.

Supply Capability:: 10000000 m.t./month

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1.Structure of Calcined Petroleum Coke Description

Calcined Petroleum Coke is made from raw petroleum coke,which is calcined in furnace at a high temperature(1200-1300℃).CPC/Calcined Petroleum Coke is widely used in steelmaking,castings manufacture and other metallurgical industry as a kind of recarburizer because of its high fixed carbon content,low sulfur content and high absorb rate.Besides,it is also a best kind of raw materials for producing artifical graphite(GPC/Graphitized Petroleum Coke) under the graphitizing temperature(2800℃).

2.Main Features of the Calcined Petroleum Coke

High-purity graphitized petroleum coke is made from high quality petroleum coke under a temperature of 2,500-3,500°C. As a high-purity carbon material, it has characteristics of high fixed carbon content, low sulfur, low ash, low porosity etc.It can be used as carbon raiser (Recarburizer) to produce high quality steel,cast iron and alloy.It can also be used in plastic and rubber as an additive.

3. Calcined Petroleum Coke Images

Low Sulphur Calcined Petroleum Coke S 0.7

4. Calcined Petroleum Coke Specification

PARAMETER UNIT GUARANTEE VALUE
F.C.%	98.5MIN	98.5% MIN
ASH %	0.5 MAX	0.8MAX
V.M.%	0.7 MAX	0.7 MAX
SULFUR %	0.5 MAX	0.7 MAX
MOISTURE %	0.5MAX	0.5MAX
SIZE	0-5MM OR AS REQUEST

5.FAQ of Calcined Petroleum Coke

1). Q: Are you a factory or trading company?

A: We are a factory.

2). Q: Where is your factory located? How can I visit there?

A: Our factory is located in ShanXi, HeNan, China. You are warmly welcomed to visit us!

3). Q: How can I get some samples?

A: Please connect me for samples

4). Q: Can the price be cheaper?

A: Of course, you will be offered a good discount for big amount.

PARAMETER UNIT GUARANTEE VALUE
F.C.%	98.5MIN	98.5% MIN
ASH %	0.5 MAX	0.8MAX
V.M.%	0.7 MAX	0.7 MAX
SULFUR %	0.5 MAX	0.7 MAX
MOISTURE %	0.5MAX	0.5MAX
SIZE	0-5MM OR AS REQUEST

Q: What's the reason for grading? What about the use of composites? What's the difference?: 1, carbon fiber has a benzene ring structure, making it difficult to rotate the molecular chain. A polymer molecule cannot fold and stretch to form a rodlike structure, thus giving fibers a high modulus.The linear structure of carbon fiber polymers allows molecules to be arranged so closely that a large number of polymer molecules can be accommodated in a unit volume. This high density makes the fibers stronger.

Q: Yes, I have a weapon, want to strengthen 11, said to be advanced furnace rock carbon, do not know how to get, look at the prawns pointing: To strengthen the ordinary senior rock colorless, furnace carbon is used advanced, the mall did not buy, according to that wish gift box can be opened in some special activities in the last device can be bought in, no other time

Q: What is the relationship between carbon and climate change?: The carbon-climate relationship mainly relies on the role of carbon dioxide (CO2) as a greenhouse gas. CO2 naturally exists in the Earth's atmosphere and is indispensable for maintaining a livable climate by ensnaring heat from the sun and preventing its escape into space. Nevertheless, human activities, particularly the combustion of fossil fuels like coal, oil, and natural gas, have substantially raised the levels of CO2 in the atmosphere. The surplus CO2 functions as an added layer, capturing more heat and resulting in a phenomenon called the greenhouse effect. This surge in greenhouse gases, including CO2, methane, and nitrous oxide, is causing global temperatures to climb and consequently leading to climate change. The elevated temperatures disturb weather patterns, leading to more frequent and intense extreme weather events such as hurricanes, droughts, heatwaves, and heavy rainfall. Moreover, the excessive CO2 in the atmosphere is also being absorbed by the oceans worldwide, resulting in ocean acidification. This process modifies the chemical composition of seawater, which has adverse effects on marine life, coral reefs, and other ecosystems. It is crucial to reduce carbon emissions and transition to renewable energy sources to mitigate climate change. By diminishing the amount of CO2 released into the atmosphere, we can decelerate and potentially reverse the detrimental impacts of climate change. Additionally, efforts to preserve and restore forests, which act as carbon sinks by absorbing CO2, are also essential in addressing the carbon-climate relationship.

Q: How is carbon used in the production of graphite?: The production of graphite relies heavily on carbon, which undergoes extreme heat and pressure to form its distinctive crystalline structure. The process commences with a high-quality carbon source, like petroleum coke or coal tar pitch, which is heated to eliminate impurities and transform it into pure coke. This coke is then ground into a fine powder and combined with a binder, typically pitch, to create a paste. The paste is molded into the desired shape, such as rods or blocks, and exposed to high temperatures in a furnace. The heat prompts the decomposition of the binder and the rearrangement of carbon atoms into hexagonal layers, characteristic of graphite. The furnace's high pressure aids in aligning the carbon layers, resulting in the formation of graphite crystals. Following the furnace process, the graphite undergoes further purification through treatments like chemical washing and acid leaching to eliminate any remaining impurities. Ultimately, the purified graphite is shaped into the final product, such as pencils, electrodes, or lubricants, using techniques like extrusion or machining. To summarize, the production of graphite involves subjecting a carbon source to high temperatures and pressures, leading to the creation of graphite crystals with its unique layered structure. This process enables the manufacturing of diverse graphite products, widely utilized in industries such as manufacturing, electronics, and energy.

Q: How can carbon capture and storage be implemented?: Carbon capture and storage (CCS) can be implemented through a three-step process. First, carbon dioxide (CO2) is captured from industrial emissions sources such as power plants or factories. This can be done using technologies like post-combustion capture, pre-combustion capture, or oxy-fuel combustion. Second, the captured CO2 is transported via pipelines or ships to suitable storage sites. These storage sites can include deep underground geological formations, such as depleted oil and gas fields or saline aquifers. Finally, the CO2 is securely stored in these underground reservoirs, preventing it from being released into the atmosphere. Implementing CCS requires the development of appropriate infrastructure, supportive policies, and investment in research and development to make the process economically viable and environmentally sustainable.

Q: What is carbon neutral agriculture?: Carbon neutral agriculture encompasses farming practices that strive to balance the amount of carbon released into the atmosphere with the amount of carbon sequestered or removed. Its objective is to adopt sustainable and environmentally friendly methods that minimize greenhouse gas emissions and promote the absorption of carbon dioxide from the atmosphere. There are several key practices involved in achieving carbon neutrality in agriculture. One of these practices involves reducing the usage of fossil fuels by implementing renewable energy sources, such as solar or wind power, for farm operations. This approach aids in diminishing emissions associated with machinery, equipment, and transportation. Another crucial aspect is the management of soil health and the enhancement of carbon sequestration. This can be accomplished via practices like cover cropping, crop rotation, and conservation tillage, which help augment organic matter in the soil. Consequently, this contributes to the storage of carbon. Furthermore, carbon neutral agriculture advocates for the use of organic fertilizers and natural pest control methods, thereby minimizing the necessity for synthetic chemicals that emit harmful greenhouse gases. Offsetting carbon emissions is another strategy employed in carbon neutral agriculture. This may involve the planting of trees on the farm or in nearby areas to absorb carbon dioxide from the atmosphere. Additionally, it can encompass participation in carbon credit programs, where farmers receive compensation for implementing sustainable practices that reduce emissions. In essence, carbon neutral agriculture adopts a comprehensive approach to minimize the carbon footprint of farming operations. By reducing emissions and maximizing carbon sequestration, it aids in mitigating climate change and promoting a more sustainable agricultural system.

Q: What are the consequences of increased carbon emissions on tourism industry?: Increased carbon emissions have significant consequences on the tourism industry. One of the most prominent effects is the deterioration of natural landscapes and ecosystems that attract tourists. Carbon emissions contribute to global warming, resulting in rising temperatures, melting glaciers, and increased instances of extreme weather events like hurricanes and droughts. These environmental changes can lead to the destruction of iconic landmarks, such as coral reefs or national parks, which are often the main attractions for tourists. Furthermore, increased carbon emissions contribute to air pollution, which can negatively impact air quality in popular tourist destinations. Poor air quality can lead to respiratory issues and other health problems for both tourists and local populations, making these places less desirable to visit. Additionally, the degradation of natural environments due to carbon emissions can also affect wildlife, leading to a decline in biodiversity. This loss of wildlife can reduce the appeal of ecotourism destinations, which heavily rely on the presence of diverse flora and fauna. Moreover, the tourism industry heavily relies on transportation, which is a significant source of carbon emissions. The use of fossil fuels in planes, ships, and cars contributes to the overall carbon footprint of the industry. As countries strive to reduce their carbon emissions, they may impose stricter regulations or taxes on air travel, making it more expensive and less accessible for travelers. This can impact the number of tourists visiting different destinations and hinder the growth of the tourism industry. Lastly, the consequences of increased carbon emissions extend beyond environmental factors. Climate change and extreme weather events can disrupt travel plans, leading to cancellations and financial losses for both tourists and businesses in the tourism industry. Moreover, destinations that heavily rely on winter tourism, such as ski resorts, may face challenges due to shorter snow seasons or inconsistent snowfall patterns caused by climate change. In conclusion, increased carbon emissions have severe consequences on the tourism industry. From the degradation of natural landscapes and ecosystems to the impact on air quality and wildlife, the effects of carbon emissions can deter tourists from visiting certain destinations. Additionally, the reliance of the tourism industry on transportation contributes to its overall carbon footprint, potentially leading to increased costs and reduced accessibility for travelers. Climate change-related disruptions and financial losses further compound the challenges faced by the tourism industry.

Q: What is the role of carbon in the human body?: Carbon plays a crucial role in the human body as it is a fundamental element for all organic molecules. It is the backbone of many biomolecules, including carbohydrates, lipids, proteins, and nucleic acids, which are essential for various physiological processes. Firstly, carbon is a key component of carbohydrates, which are the primary source of energy for the body. Glucose, a simple sugar composed of carbon, hydrogen, and oxygen, is broken down in cells to release energy through cellular respiration. Additionally, carbon forms the structure of complex carbohydrates like glycogen, which is stored in the liver and muscles as an energy reserve. Secondly, carbon is present in lipids, such as fats and oils, which serve as an energy source, insulation, and protection for organs. Carbon atoms are arranged in long hydrocarbon chains, making lipids hydrophobic and allowing them to store and release energy efficiently. Lipids also play a crucial role in cell membrane structure and hormone production. Furthermore, carbon is a fundamental component of proteins, which are involved in almost all cellular processes. Proteins are composed of amino acids, and carbon atoms form the backbone of these amino acids, providing stability and flexibility to the protein structure. Carbon also participates in the formation of peptide bonds, which link amino acids together to build proteins. Proteins are essential for various functions, including enzyme catalysis, transport and storage of molecules, immune response, and cell signaling. Lastly, carbon is a vital element in nucleic acids, such as DNA and RNA, which contain genetic information. Carbon atoms form the sugar-phosphate backbone of nucleic acids, providing stability to the structure. DNA carries hereditary information, while RNA plays a crucial role in protein synthesis. In summary, carbon is essential in the human body as it forms the basis 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 effects of carbon emissions on the stability of peatlands?: Carbon emissions have significant effects on the stability of peatlands. Increased levels of carbon dioxide in the atmosphere contribute to global warming, which in turn accelerates the decomposition of organic matter in peatlands. This decomposition releases even more carbon dioxide, creating a positive feedback loop that further exacerbates climate change. Additionally, rising temperatures and changing precipitation patterns can lead to the drying out of peatlands, making them more prone to wildfires. These fires release massive amounts of carbon dioxide into the atmosphere, further contributing to climate change. Overall, carbon emissions threaten the stability of peatlands by accelerating their degradation and releasing large amounts of greenhouse gases.