• FC 99% Calciend Petroleum Coke Manufactured in China System 1
  • FC 99% Calciend Petroleum Coke Manufactured in China System 2
FC 99% Calciend Petroleum Coke Manufactured in China

FC 99% Calciend Petroleum Coke Manufactured in China

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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
20.5
Supply Capability:
2050 m.t./month

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Brief introduction

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.

BaoSteel is world famous organization. This calcined petroleum coke's raw material is from Bao Steel, which has great quality guarantee. Bao Steel also named this coke as Pitch Coke.

 

Features

Our product has follwing advantages:

The morphology, chemistry and crystallinity of recarburisers

have a major impact on the overall casting cost. The combined

application and cost benefits, which are derived through the

use of Desulco, enable foundries to manufacture castings in a

highly cost effective manner. It is playing more and more important role in the industry

reduces
 Recarburiser consumption
 Power consumption
 Inoculant consumption
 MgFeSi consumption
 Furnace refractory wear
 Scrap rate
 Tap to tap time
 Slag inclusions risk
 Chill

 

 increases
 Casting microstructure
 Productivity
 Process consistency

 

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

 

Pictures

FC 99% Calciend Petroleum Coke Manufactured in China

FC 99% Calciend Petroleum Coke Manufactured in China

FC 99% Calciend Petroleum Coke Manufactured in China

FC 99% Calciend Petroleum Coke Manufactured in China

FAQ

1 What is the package?

In jumbo bag with/without pallet

2 What is the delivery time?

25 days after receiving the workable LC or down payment

3 What is the payment term?

T/T, L/C,D/P,D/A

 

Q: What is the role of carbonation in carbonated drinks?
The role of carbonation in carbonated drinks is to provide the refreshing and effervescent sensation that is characteristic of these beverages. Carbonation is the process of dissolving carbon dioxide gas into a liquid, typically water, under pressure. This results in the formation of carbonic acid, which adds a tangy flavor to the drink. Carbonation serves several purposes in carbonated drinks. Firstly, it enhances the taste by adding a unique bubbly sensation that stimulates the taste buds and gives a refreshing mouthfeel. The effervescence created by the carbonation also contributes to the overall sensory experience of the drink, making it more enjoyable to consume. Furthermore, carbonation acts as a natural preservative in carbonated drinks. The carbon dioxide gas inhibits the growth of bacteria and other microorganisms, thereby extending the shelf life of the beverage. This is particularly important for soft drinks that are often stored for extended periods before consumption. In addition to taste and preservation, carbonation plays a role in the presentation of carbonated drinks. The release of carbon dioxide gas from the liquid creates bubbles and fizz, making the drink visually appealing and enticing. This visual appeal is often associated with a feeling of luxury and indulgence. Overall, carbonation is an essential component of carbonated drinks, providing taste, preservation, and visual appeal. It enhances the sensory experience and contributes to the overall enjoyment of these beverages.
Q: How does carbon affect the growth of plants?
Carbon is an essential element for the growth and development of plants. It is a key component of organic compounds such as carbohydrates, proteins, and lipids, which are vital for the metabolic processes in plants. Through the process of photosynthesis, plants are able to convert carbon dioxide (CO2) into glucose and other sugars, which serve as a source of energy for growth and various physiological functions. Carbon also plays a crucial role in the formation of plant structures. Cellulose, a complex carbohydrate made up of carbon, hydrogen, and oxygen, provides rigidity and support to plant cell walls, allowing them to maintain their shape and withstand mechanical stress. Additionally, lignin, another carbon-based compound, helps strengthen the stems and roots of plants, enabling them to grow upright and resist bending or breaking. Furthermore, carbon is involved in the regulation of plant hormones and signaling molecules, which control growth, flowering, and other developmental processes. It serves as a building block for the synthesis of numerous plant hormones, including auxins, gibberellins, and cytokinins, which influence cell division, elongation, and differentiation. In summary, carbon is indispensable for the growth of plants as it fuels their energy requirements, provides structural support, and participates in hormonal regulation. Understanding the role of carbon in plant growth is crucial for optimizing agricultural practices, ensuring healthy crop yields, and mitigating the impact of climate change on plant ecosystems.
Q: How does carbon impact the prevalence of tsunamis?
Carbon does not directly impact the prevalence of tsunamis. Tsunamis are primarily caused by seismic activity, such as earthquakes or volcanic eruptions, which are unrelated to carbon emissions. However, rising carbon levels can contribute to global climate change, leading to the melting of polar ice caps and potentially increasing the risk of coastal flooding, which can indirectly amplify the impact of a tsunami.
Q: What are the effects of carbon emissions on the stability of mangrove forests?
Carbon emissions have detrimental effects on the stability of mangrove forests. Increased carbon dioxide in the atmosphere leads to ocean acidification, which negatively impacts mangroves by inhibiting their growth and reducing their ability to survive. Additionally, rising temperatures resulting from carbon emissions contribute to sea level rise, which increases the risk of flooding and erosion in mangrove habitats. This disrupts the delicate balance of the ecosystem and threatens the overall stability and biodiversity of mangrove forests.
Q: What is diamond?
Diamond is a precious gemstone that is highly valued for its exceptional hardness, brilliance, and rarity. It is a form of carbon that has undergone intense heat and pressure deep within the Earth's mantle, resulting in its unique crystal structure. Known for its dazzling sparkle, diamond is transparent and colorless, although it can also occur in various colors such as yellow, blue, pink, and green due to impurities present during its formation. Diamonds are renowned for their use in jewelry, as they are cut and polished into various shapes to maximize their brilliance. Additionally, diamonds possess remarkable durability and are commonly used in industrial applications such as cutting, grinding, and drilling due to their strength. Overall, diamond's extraordinary beauty, durability, and scarcity have made it one of the most sought-after gemstones in the world.
Q: How does carbon dioxide contribute to ocean acidification?
Carbon dioxide contributes to ocean acidification by dissolving in seawater and forming carbonic acid. This increase in acidity prevents the normal growth and development of shell-forming organisms such as corals, oysters, and certain plankton species. It also affects the balance of calcium carbonate in the water, making it more difficult for these organisms to build and maintain their shells or skeletons. Overall, the increasing levels of carbon dioxide in the atmosphere lead to the acidification of the oceans, causing detrimental impacts on marine ecosystems and biodiversity.
Q: What is the carbon content of different types of household waste?
The carbon content of different types of household waste can vary depending on the specific materials being discarded. Generally, organic waste such as food scraps, yard waste, and paper products tend to have a higher carbon content compared to inorganic waste like glass, plastics, and metals. Food waste is primarily composed of organic materials and has a high carbon content. It typically ranges from 50 to 70 percent carbon content. This is because food is derived from plants and animals, which contain carbohydrates, proteins, and fats that are rich in carbon. Yard waste, such as grass clippings, leaves, and branches, also has a substantial carbon content. It contains plant matter that is predominantly made up of cellulose and lignin, which are carbon-based compounds. The carbon content of yard waste can vary depending on the type of vegetation, but it generally falls within the range of 40 to 60 percent. Paper products, such as newspapers, cardboard, and office paper, are primarily made from wood pulp. Wood is composed of cellulose, hemicellulose, and lignin, all of which contain carbon. As a result, paper waste has a significant carbon content, typically ranging from 40 to 60 percent. On the other hand, inorganic waste materials like glass, plastics, and metals have minimal carbon content. These materials are primarily derived from non-renewable resources such as minerals and fossil fuels, which are low in carbon content. Therefore, their carbon content is negligible or close to zero. It is important to note that while organic waste contains higher carbon content, it also has the potential to be composted or converted into biogas through anaerobic digestion, thereby contributing to carbon sequestration or renewable energy generation. In contrast, inorganic waste materials like plastics and metals are non-biodegradable and can have detrimental environmental impacts if not properly managed.
Q: How does carbon affect the formation of permafrost thawing?
The formation and thawing of permafrost can be greatly influenced by carbon. Permafrost, which consists of frozen soil, rock, and organic matter, remains at freezing temperatures for at least two consecutive years. It acts as a natural carbon sink, storing vast amounts of organic carbon from deceased plants and animals accumulated over thousands of years. As permafrost thaws, this stored carbon begins to decompose, releasing greenhouse gases like carbon dioxide and methane into the atmosphere. The carbon released from permafrost thawing contributes to the overall rise in greenhouse gas levels, worsening the effects of climate change. Furthermore, as permafrost thaws, it becomes more susceptible to erosion and subsidence, resulting in landscape changes and the additional release of carbon. This process can create a positive feedback loop, where the released carbon further speeds up permafrost thawing, leading to more carbon emissions. Moreover, the thawing of permafrost can also impact the stability of infrastructure constructed on frozen ground, such as roads, buildings, and pipelines, causing significant economic and environmental consequences. To summarize, carbon plays a crucial role in the formation and thawing of permafrost. The release of carbon from thawing permafrost contributes to climate change, accelerates the thawing process, and has various environmental and economic impacts. It is essential to address carbon emissions and find ways to mitigate permafrost thawing in order to combat climate change and preserve the stability of these frozen ecosystems.
Q: Recently bought an alarm clock, it is recommended to use carbon batteries. Nanfu battery is not good for the movement.
Yes, a lot of people do not pay attention to, the Nanfu battery, strange carbon batteries say it is really rare, generally small supermarkets are not only basic, and is strongly alkaline. Therefore, it is best to go to a large supermarket or electrical store try, there are generally sold there, and many types, the choice will be more.
Q: What is carbon neutral construction?
Carbon neutral construction refers to the process of designing, constructing, and maintaining buildings in a way that minimizes their carbon footprint and offsets any remaining emissions. This involves using sustainable materials, implementing energy-efficient systems, and utilizing renewable energy sources to achieve net-zero carbon emissions throughout the building's lifecycle.

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