Calcined Petroleum Coke FC98% from CNBM China

Calcined Petroleum Coke FC98% from CNBM China System 1

Calcined Petroleum Coke FC98% from CNBM China

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Loading Port:: Tianjin

Payment Terms:: TT or LC

Min Order Qty:: 20 m.t.

Supply Capability:: 1500 m.t./month

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Quick Details

Place of Origin: China (Mainland)
Application: carben additives
Dimensions: fix carben morethan98%,sulphur less5%
Chemical Composition: nature graphite powder
attribute: briquette grade
shape: <SPAN style="BORDER-BOTTOM: 0px; BORDER-LEFT: 0px; PADDING-BOTTOM: 0px; MARGIN: 0px; PADDING-LEFT: 0px; PADDING-RIGHT: 0px; FONT-FAMILY: inherit; WORD-WRAP: break-word; VERTICAL-ALIGN: baseline; BORDER-TOP: 0px; BORDER-RIGHT: 0px; PADDING-TOP: 0px" class=attr-value title=block/powder>block/powder
classify: carbon additives/petroleum coke

Packaging & Delivery

Packaging Details:	50kg/bag,25kg/bag or as customer requirement
Delivery Detail:	20DAYS after payment

Specifications

Calcined Petroleum Coke FC98% from CNBM China

Petroleum coke products can be divided into needle coke, sponge coke, projectile coke and coke breeze four kinds.

Calcined Petroleum Coke

F.C.: 98.5%MIN

ASH: 0.8% MAX

V.M.: 0.7%MAX

S:0.5%MAX

Moisture: 0.5%MAX

Structure

Calcined Petroleum Coke FC98% from CNBM China

Shape: granule

Dimensions: 0-1mm, 1-5mm, 1-6mm, 2-8mm, etc
Product Type: Carbon Additive
C Content (%): 98-99.5% MIN
Working Temperature: -
S Content (%): 0.5%-0.7%MAX
Ash Content (%): 0.7%MAX
Volatile:0.8%MAX
Moisture: 0.5% MAX
ADVANTAGE: low ash & sulfur
COLOR: Black

Feature

Calcined Petroleum Coke FC98% from CNBM China

Physics and chemistry performance:

	Unit	Index
		No.1	No.2	No.3
Density	g/cm3	2.04	2.00		2.00
sulphur content	%≤	0.5	1.0		2.5
volatility	%≤	0.5	0.5		0.5
ash content	%≤	0.5	0.5		0.5
moisture	%≤	0.3	0.5		0.5
charcoal	%≤	98.5	98.0		98.0

Image

Calcined Petroleum Coke FC98% from CNBM China

FAQ:

Calcined Petroleum Coke FC98% from CNBM China

How to classify calcined petroleum coke?

1) According to difference of sulfur content, can be divided into high sulfur coke (sulfur content more than 4%), sulphur in coke sulfur content (2% 4%) and low sulfur coke (sulfur content below 2%).

2) Petroleum coke products can be divided into needle coke, sponge coke, projectile coke and coke breeze four kinds:

3) Needle coke, has obvious needle-like structure and fiber texture, mainly used for steel-making in high power and ultra-high power graphite electrode. As a result of needle coke in sulfur content, ash content, volatile matter and true density and so on have strict quality requirements, so the production process of needle coke and raw materials have special requirements.

4) The sponge coke, high chemical reactivity, low content of impurities, mainly used in the aluminum industry and carbon industry.

5) Focal or spherical coke: the projectile shape is round, diameter 0.6-30 mm, usually from the production of high sulphur, high asphaltic residual oil, can only be used as industrial fuel power generation, cement etc.

6) Coke breeze: fluidized coking process, the fine particles (0.1- 0.4 mm) in diameter, high volatile, high expansion coefficient, cannot be directly used for electrode preparation and carbon industry.

Advantage:

Calcined Petroleum Coke FC98% from CNBM China

1. High quality and competitive price.

2. Timely delivery.

3. If any item you like. Please contact us.

Your sincere inquiries are typically answered within 24 hours.

Q: How is carbon used in the production of pharmaceuticals?: Carbon is used in various ways in the production of pharmaceuticals. One primary use of carbon is in the synthesis of organic compounds, which form the basis of many drugs. Carbon atoms are the building blocks of organic compounds, and they are essential for creating the complex structures found in pharmaceutical molecules. Carbon is also used in the production of active pharmaceutical ingredients (APIs). APIs are the components of a drug that provide the desired therapeutic effect. Carbon is often incorporated into the structure of APIs to enhance their stability, bioavailability, and efficacy. Carbon-based molecules can be modified to fine-tune their properties, making them more effective in targeting specific diseases or conditions. Moreover, carbon is utilized in the purification and separation processes during pharmaceutical production. Carbon-based adsorbents, such as activated carbon, are commonly used to remove impurities and contaminants from drug formulations. These adsorbents have a high surface area and can effectively bind to and remove unwanted substances, ensuring the purity and safety of pharmaceutical products. Carbon is also employed in the development of drug delivery systems. Carbon nanomaterials, such as carbon nanotubes and graphene, have unique properties that make them suitable for drug delivery applications. These nanomaterials can encapsulate drugs, allowing for controlled release and targeted delivery to specific tissues or cells. They can also improve the solubility and stability of drugs, enhancing their therapeutic potential. In summary, carbon plays a crucial role in the production of pharmaceuticals. It is involved in the synthesis of organic compounds, the creation of active pharmaceutical ingredients, the purification of drugs, and the development of drug delivery systems. Its versatility and ability to form complex structures make carbon an essential element in the pharmaceutical industry.

Q: What are fullerenes?: Fullerenes are a class of carbon molecules that have a unique structure resembling hollow spheres, tubes, or other shapes. They are made entirely of carbon atoms, forming a cage-like structure. Fullerenes can have different sizes and arrangements of carbon atoms, with the most famous one being the buckyball, consisting of 60 carbon atoms arranged in a soccer ball-like shape. These molecules have various applications in technology, medicine, and materials science due to their exceptional physical and chemical properties.

Q: What are the impacts of carbon emissions on indigenous communities?: Indigenous communities are greatly affected by carbon emissions, which have significant impacts on their environment, culture, health, and overall well-being. One of the main consequences is the degradation of their traditional lands and natural resources, which are crucial for their livelihoods, including hunting, fishing, and agriculture. The increase in carbon emissions leads to climate change, resulting in changes in temperature, weather patterns, and ecosystems. This disrupts the delicate balance of their ecosystems and makes it more challenging for them to sustain their way of life. The loss of traditional lands and resources also has profound cultural implications for indigenous communities. Their connection to the land is deeply rooted in their identity and spirituality. When their lands are degraded or destroyed due to carbon emissions, it erodes their cultural practices, knowledge, and traditions. This loss of cultural heritage affects not only indigenous communities but also the global society, as their unique knowledge about sustainable land management and conservation practices can offer valuable insights for addressing climate change and protecting the planet. Moreover, carbon emissions contribute to air pollution, which severely impacts the health of indigenous communities. Many indigenous communities live near industrial facilities or fossil fuel extraction sites, leading to increased exposure to pollutants such as particulate matter, sulfur dioxide, and nitrogen oxides. These pollutants cause respiratory illnesses, cardiovascular diseases, and other health issues, disproportionately affecting vulnerable members of these communities, including children and the elderly. In addition to immediate health impacts, the long-term consequences of carbon emissions, such as rising sea levels and extreme weather events, pose further threats to the existence of indigenous communities. Many indigenous communities reside in low-lying coastal areas or remote regions that are more susceptible to the effects of climate change, including coastal erosion, flooding, and loss of traditional food sources. These changes not only disrupt their way of life but also force them to consider relocation, resulting in the loss of their cultural identity and connection to their ancestral lands. Addressing carbon emissions and mitigating climate change is crucial for the well-being and survival of indigenous communities. It involves recognizing their rights to their traditional lands, resources, and self-determination, as well as involving them in decision-making processes regarding environmental conservation. Supporting sustainable development projects that prioritize local needs and indigenous knowledge can help foster resilient communities that can adapt to the changing climate. Ultimately, by reducing carbon emissions and protecting the environment, we can preserve the cultural diversity and invaluable contributions of indigenous communities for future generations.

Q: What are the impacts of carbon emissions on the stability of permafrost?: Carbon emissions have a significant impact on the stability of permafrost, which is the layer of soil, sediment, and rock that remains frozen for at least two consecutive years. This frozen layer covers vast areas in the Arctic, subarctic regions, and high-altitude mountain ranges. One of the main consequences of carbon emissions on permafrost stability is the acceleration of climate change. The emission of carbon dioxide (CO2) and other greenhouse gases traps heat in the atmosphere, resulting in global warming. As temperatures increase, permafrost begins to thaw, leading to various negative outcomes. Thawing permafrost releases a substantial amount of stored carbon into the atmosphere. This carbon was previously locked in frozen organic matter, such as dead plants and animals, which accumulated over thousands of years. When permafrost thaws, microbes decompose this organic matter and release greenhouse gases like carbon dioxide and methane. These emissions create a positive feedback loop, exacerbating climate change and causing further permafrost thawing. The release of carbon from thawing permafrost contributes to the overall rise in atmospheric greenhouse gas concentrations. This, in turn, amplifies global warming and global climate change. The consequences are not confined to the Arctic; they impact the entire planet. Rising temperatures, sea-level rise, extreme weather events, and disruptions to ecosystems are among the results of global climate change. Permafrost thaw also affects infrastructure and human settlements in the Arctic and subarctic regions. Buildings, roads, pipelines, and other infrastructure constructed on permafrost can become unstable as the ground beneath them softens. This instability can lead to structural damage and economic losses. Furthermore, communities that rely on permafrost for traditional activities like hunting, fishing, and transportation face challenges due to the changing landscape. The impacts of carbon emissions on permafrost stability extend beyond local areas and have global implications. The release of stored carbon from permafrost contributes to climate change, which has far-reaching consequences for ecosystems, economies, and societies worldwide. It is crucial to decrease carbon emissions and mitigate climate change to preserve permafrost and its essential role in the Earth's climate system.

Q: How does carbon dioxide affect ocean acidity?: Ocean acidification, a process caused by the presence of carbon dioxide, is responsible for the increased acidity in the ocean. Human activities, such as the burning of fossil fuels, release carbon dioxide into the atmosphere, and a significant portion of it is absorbed by the oceans. This excess carbon dioxide reacts with seawater and forms carbonic acid, which then dissociates into hydrogen ions and bicarbonate ions. The rise in hydrogen ions reduces the ocean's pH level, resulting in increased acidity. The elevated acidity of the ocean negatively impacts marine life in several ways. Marine organisms, including corals, shellfish, and plankton, are unable to construct and maintain their calcium carbonate structures, such as shells and exoskeletons, due to this condition. This can lead to slower growth rates, weakened structures, and higher mortality rates among these organisms. The survival and reproduction of various species, including fish and other marine animals, are also affected by ocean acidification. The changes in water chemistry disrupt their physiological processes, making it difficult for them to navigate, find food, and evade predators. Moreover, the increased acidity can alter the behavior and development of certain species, potentially causing changes in ecosystems and a decline in biodiversity. Ocean acidification can also have a cascading effect on the entire marine food web. Phytoplankton and other primary producers, which are the foundation of the food chain, may suffer due to the changing ocean chemistry. Consequently, the organisms that rely on them for sustenance are also impacted. This disruption can have far-reaching consequences for the entire ecosystem, including commercially valuable fish species and the livelihoods of coastal communities that depend on them. In conclusion, the emissions of carbon dioxide contribute to ocean acidification, which has severe consequences for marine life and ecosystems. It is crucial to comprehend and address this issue in order to safeguard the health and sustainability of our oceans and the countless species that depend on them.

Q: What is the most common isotope of carbon?: Carbon-12, the most prevalent carbon isotope, derives its name from its atomic mass of 12 atomic mass units, determined by the composition of protons and neutrons in its nucleus. It dominates the natural abundance of carbon, comprising approximately 98.9% of all carbon atoms. In contrast, carbon-13 and carbon-14, the other two carbon isotopes, occur in lesser quantities and proportions. Being stable and resistant to radioactive decay, carbon-12 holds great significance as a vital element for sustaining life on our planet.

Q: How does carbon dioxide affect the health of marine organisms?: Carbon dioxide can have significant impacts on the health of marine organisms. When carbon dioxide is absorbed by seawater, it undergoes a chemical reaction that causes the water to become more acidic. This process is known as ocean acidification. Ocean acidification interferes with the ability of many marine organisms to build and maintain their shells and skeletons. For instance, corals, oysters, and other shellfish rely on calcium carbonate to form their protective structures. However, under more acidic conditions, the availability of carbonate ions decreases, making it harder for these organisms to calcify. This can lead to weakened shells, reduced growth rates, and increased vulnerability to predation and disease. Furthermore, ocean acidification can also disrupt the reproductive and developmental processes of marine organisms. For example, some studies have shown that increased CO2 levels can affect the ability of fish to locate their preferred habitats, find mates, and successfully reproduce. Additionally, some species of fish and invertebrates have been found to exhibit altered behavior and impaired sensory functions under high CO2 conditions. In addition to these direct effects, ocean acidification can also have indirect consequences for marine organisms by disrupting entire ecosystems. For instance, the decline in coral reefs due to reduced calcification can have cascading effects on the whole reef ecosystem, impacting the biodiversity and productivity of these important marine habitats. Overall, the increasing levels of carbon dioxide in the atmosphere are not only contributing to global climate change but also leading to ocean acidification, which poses significant threats to the health and survival of many marine organisms. It is crucial to address and mitigate the causes of carbon dioxide emissions in order to protect the delicate balance of our oceans and the diverse range of species that depend on them for their survival.

Q: What role does carbon play in the carbon cycle?: Carbon plays a crucial role in the carbon cycle as it is the main element that cycles between the atmosphere, plants, animals, and the Earth's crust. It is released into the atmosphere through various processes like respiration, combustion, and volcanic activity, and then absorbed by plants through photosynthesis. Carbon is then transferred from plants to animals through the food chain. When plants and animals die, their organic matter decomposes and releases carbon back into the atmosphere or gets stored in the Earth's crust as fossil fuels. The carbon cycle helps maintain a balance of carbon dioxide in the atmosphere, which is vital for regulating Earth's temperature and supporting life on our planet.

Q: I want to make a rectangular round bar for bearing. What carbon fiber and carbon fiber should be used? How should I do it? What kind of machine does it use to dry it?: Carbon fiber is not plastic, and plastic is not the same material. Carbon fiber forming process is mainly:A molding process is: by hand will prepreg paper in the mold, and then curing. This is the biggest advantage of simple manufacturing process, manual to complete more complex operations, can process the complex shape parts, suitable for small batch production; the disadvantage is low efficiency and poor labor conditions, labor intensity is big.Filament winding forming technology: the earliest continuous forming process, that is, the fiber is dipped into the resin through the resin trough, and then wrapped on the rotating core mold according to certain rules. Then, the glue is solidified and formed by heating. A prominent feature is that it is in accordance with the stress situation of products, the fiber according to a certain rule arrangement, so as to give full play to the strength of the fiber, obtain the lightweight products; can realize continuous and mechanized production in the process, and short production cycle, high production efficiency, low labor intensity, suitable for manufacturing cylinder the sphere, and some positive curvature gyration bodies or tubular products.

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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