• FC90% Calcined Anthracite Coal in high quality System 1
  • FC90% Calcined Anthracite Coal in high quality System 2
FC90% Calcined Anthracite Coal in high quality

FC90% Calcined Anthracite Coal in high quality

Ref Price:
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Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
20.2
Supply Capability:
9550 m.t./month

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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.

 

Features

Carbon Additive also called Calcined anthracite Coal, Gas Calcined Anthracite Coal, Carbon Raiser, Recarburizer, injection coke, charging coke and etc.

It is playing more and more important role in the industry.The main raw material of our Carbon Additive is Ningxia unique high quality Taixi anthracite, with characteristic of low ash and low sulfur. Carbon additive has two main usage, fuel and additive. When being used as the carbon additive of steel-smelting, and casting, the fixed carbon may achieve above 95%. Carbon additive is becoming more and more crucia in the steel and foundry industry.

Best quality Taixi anthracite as raw materials through high temperature calcined at 1200-1250 for 24 hours  by the DC electric calciner with results in eliminating the moisture and volatile matter from Anthracite efficiently, improving the density and the electric conductivity and strengthening the mechanical strength and anti-oxidation, It has good characteristics with low ash, low resistivity, low carbon and high density. It is the best material for high quality carbon products, it is used as carbon additive in steel industry or fuel.

 

Specifications

PARAMETER   UNIT GUARANTEE VALUE

F.C.%

95MIN 

94MIN

93MIN

92MIN

90MIN

ASH %

4MAX

5MAX

6MAX

7MAX

8MAX

V.M.%

1 MAX

1MAX

1.5MAX

1.5MAX 

1.5MAX

SULFUR %

0.5MAX

0.5MAX

0.5MAX

0.5MAX

0.5MAX

MOISTURE %

0.5MAX

0.5MAX

0.5MAX

0.5MAX

0.5MAX

Pictures

 

FC90% Calcined Anthracite Coal in high quality

FC90% Calcined Anthracite Coal in high quality

FC90% Calcined Anthracite Coal in high quality

 

FAQ:

1.    What is the packing?

In 25kg bag/ In jumbo bags without pallet/ Two jumbo bags with one pallet/ or as customers’ request

2. What is the production capacity?

10 thousand tons per month

3 What is payment term?

L/C, T/T

4 What is the service?

We will send sample to the third party(CIQ, CCIC, SGS,BV or to be discussed) for checking, and present the test certificate and loading repot of shipment.

 

 

Q:What are the impacts of carbon emissions on the stability of grasslands?
Carbon emissions have significant impacts on the stability of grasslands. As carbon dioxide (CO2) is released into the atmosphere, it contributes to the greenhouse effect, leading to global warming. This increase in temperature has several detrimental effects on grasslands. Firstly, higher temperatures can disrupt the balance of grassland ecosystems. Many grassland species have specific temperature requirements for growth and reproduction. As temperatures rise, these species may struggle to adapt, leading to a decline in their populations. This can disrupt the overall biodiversity and ecological stability of grasslands. Secondly, global warming can alter precipitation patterns, leading to changes in water availability in grasslands. Reduced rainfall or increased evaporation can result in drought conditions, making it difficult for grasses to grow and thrive. This can lead to the desertification of grasslands, transforming them into barren areas devoid of plant life. Furthermore, carbon emissions contribute to the acidification of the oceans, which can indirectly impact grasslands. Acidic ocean waters affect marine organisms, including those responsible for generating nutrients that are carried by winds to coastal and inland grasslands. If these nutrient sources decline, grasslands may experience reduced fertility and productivity, affecting the stability of these ecosystems. Lastly, carbon emissions can also exacerbate the frequency and intensity of wildfires. Grasslands are naturally adapted to periodic fires, which play a crucial role in maintaining biodiversity and regulating plant populations. However, the increase in carbon dioxide levels can fuel more intense and frequent wildfires, which can destroy grasslands and make their recovery more challenging. In conclusion, carbon emissions have multiple negative impacts on the stability of grasslands. They disrupt the balance of grassland ecosystems, alter precipitation patterns, contribute to ocean acidification affecting nutrient sources, and increase the risk of wildfires. These effects can lead to biodiversity loss, desertification, reduced fertility, and overall instability in grassland ecosystems. It is crucial to reduce carbon emissions and mitigate the impacts of global warming to ensure the long-term stability and preservation of grasslands.
Q:How is carbon used in the production of fuel cells?
Carbon is used in fuel cells as a catalyst to facilitate the electrochemical reactions that occur during the production of electricity. It is commonly employed as a component of the electrodes, where it helps to enhance the efficiency and performance of the fuel cell by promoting the oxidation and reduction reactions.
Q:A carbon Roast Lamb Leg stores need to how much money
Do about 50 thousand! Do not have their own skills, you have to learn, have time to look at the Weifang green, Mongolia edge, taste and scale are pretty good!
Q:Why can carbon fiber in addition to static electricity ah?
The elimination of electricity is based on the leakage of charge. The carbon fiber has a weak corona discharge, so it combines the charge.
Q:How does carbon pricing work?
Carbon pricing is an approach that utilizes the market to decrease greenhouse gas emissions by placing a value on carbon emissions. This is achieved by assigning a financial cost to the release of carbon dioxide and other greenhouse gases into the atmosphere, which greatly contribute to climate change. There exist two primary forms of carbon pricing mechanisms: carbon taxes and cap-and-trade systems. Under a carbon tax, a fixed price per metric ton of carbon emissions is established, and emitters are obligated to pay this tax according to their emissions. The tax can be imposed at different points in the supply chain, such as during extraction, production, or consumption. The goal of a carbon tax is to create a economic deterrent for emitting carbon and motivate industries and individuals to reduce their emissions. On the other hand, cap-and-trade systems impose a limit or cap on the total amount of carbon emissions permitted within a specific jurisdiction. This cap is divided into allowances, which represent the right to emit a particular amount of carbon. These allowances are either distributed or auctioned to emitters in the form of permits. Emitters can then trade these permits amongst themselves in a market. If an emitter surpasses their allocated allowances, they must purchase additional permits from those who have surplus allowances. This establishes a market-based incentive for emission reduction, as those who can more cost-effectively decrease their emissions can sell their excess allowances to those who are unable to. Both carbon taxes and cap-and-trade systems aim to incorporate the cost of carbon emissions into the economy, making pollution more expensive and encouraging the adoption of cleaner technologies and practices. By assigning a value to carbon, these mechanisms provide economic signals that urge businesses, industries, and individuals to invest in low-carbon alternatives, energy efficiency, and innovation. Additionally, they generate revenue for governments, which can be utilized to fund efforts in climate change mitigation and adaptation, renewable energy projects, or to reduce other taxes. Overall, carbon pricing mechanisms are designed to establish economic incentives for reducing greenhouse gas emissions, facilitating the transition to a low-carbon economy, and mitigating climate change. While they may not be a perfect solution, they are widely acknowledged as one of the most effective tools for driving emission reductions and combating climate change.
Q:How does carbon affect the formation of permafrost thawing?
Carbon affects the formation of permafrost thawing by accelerating the process through its release into the atmosphere. As permafrost thaws, it exposes organic matter that has been frozen for centuries, releasing carbon dioxide and methane, both potent greenhouse gases. This additional carbon in the atmosphere further enhances the warming effect, leading to a positive feedback loop where increased temperatures cause more permafrost thawing, releasing more carbon, and exacerbating climate change.
Q:What is carbon nanomembrane?
A carbon nanomembrane (CNM) refers to an ultra-thin layer of carbon atoms arranged in a two-dimensional lattice structure. It is typically just a single atom thick, making it one of the thinnest materials known to exist. CNMs are created by depositing a precursor material onto a substrate and then using heat or chemical processes to transform it into a pure carbon layer. Due to its unique properties, carbon nanomembranes have garnered significant interest in various fields of science and technology. CNMs are highly impermeable to gases and liquids, making them ideal for applications such as gas separation and filtration. They also possess exceptional electrical conductivity, making them suitable for electronic devices and sensors. Furthermore, carbon nanomembranes can be engineered with tailored pore sizes and chemical functionalities, enabling their use in molecular sieving and biological applications. They have shown promise in areas such as drug delivery, water purification, and tissue engineering. Additionally, CNMs have demonstrated excellent mechanical strength and flexibility, which opens up opportunities for their use in lightweight and flexible electronics. Overall, carbon nanomembranes offer a versatile and exciting platform for a wide range of applications. Ongoing research and development in this field aim to further explore and harness the unique properties of CNMs for the advancement of various industries.
Q:How does a kebab cook at home?
Do you have long fire sticks in your house?...... Yes, just a carbon and burn it over the gas stove...... If not, apply a little oil underneath......Burn, put carbon on the top, pay attention to leave the gap, do not suppress it.
Q:What are the challenges and opportunities of transitioning to a low-carbon economy?
The challenges of transitioning to a low-carbon economy include the need for significant investments in renewable energy infrastructure, the potential loss of jobs in fossil fuel industries, and the complexity of implementing new policies and regulations. Additionally, there may be resistance from certain industries or regions that heavily rely on carbon-intensive practices. However, this transition also presents numerous opportunities. It allows for the development of sustainable and innovative industries, such as renewable energy technologies, electric vehicles, and energy-efficient buildings. It can create new job opportunities in these emerging sectors and stimulate economic growth. Moreover, transitioning to a low-carbon economy helps mitigate climate change, reduce air pollution, and improve public health, leading to a more sustainable and resilient future.
Q:How does carbon affect the formation of avalanches?
Carbon does not directly affect the formation of avalanches. Avalanches occur primarily due to factors such as snowpack stability, slope angle, and weather conditions. However, carbon emissions and climate change can indirectly impact avalanche formation by affecting snowpack stability. Rising carbon dioxide levels in the atmosphere contribute to global warming, which in turn affects the overall climate. As temperatures increase, it leads to changes in precipitation patterns, snowfall amounts, and snowpack characteristics. Warmer temperatures can cause rain instead of snow, leading to a less stable snowpack. In addition to altered precipitation patterns, climate change can also lead to the melting and refreezing of snow, creating weak layers within the snowpack. These weak layers, combined with subsequent snowfall and wind, can result in unstable snowpacks that are prone to avalanches. Furthermore, carbon emissions contribute to the overall warming of the planet, which can lead to glacier retreat. Glaciers act as natural barriers and stabilizers in mountainous regions, reducing the likelihood of avalanches. As glaciers shrink, they leave behind unstable slopes, increasing the potential for avalanches. It is important to note that while carbon emissions and climate change have an indirect influence on avalanche formation, they are not the sole or primary cause. Local weather conditions, slope angles, and snowpack stability assessments conducted by avalanche experts play a more immediate role in determining the likelihood of an avalanche occurring.

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