Calcined Anthracite Coal FC 90-95% for Steelmaking
- Ref Price:
-
- Loading Port:
- Tianjin
- Payment Terms:
- TT or LC
- Min Order Qty:
- 20 m.t.
- Supply Capability:
- 10000 m.t./month
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Quick Details
Place of Origin: Ningxia, China (Mainland)
Application: steel making
Shape: granule
Dimensions: FC90-95%
Product Type: Carbon Additive
C Content (%): 90-95% MIN
Working Temperature: -
S Content (%): 0.5%MAX
N Content (%): -
H Content (%): 0.6%MAX
Ash Content (%): 8.5%MAX
Volatile: 2%MAX
ADVANTAGE: low ash & sulfur
COLOR: Black
RAW MATERIAL: TaiXi anthracite
Packaging & Delivery
| Packaging Details: | In 1MT plastic woven bag. |
|---|---|
| Delivery Detail: | 30-40DAYS |
Specifications
Calcined Coal FC 90-95% for Steelmaking
Carbon Additve low Ash,S,P
FC>95% ASH<4% S<0.3%
It is made from TaiXi anthracite.
instead of pertrol coke reduce the cost
Structure
Calcined Coal FC 90-95% for Steelmaking
Shape: granule
Dimensions: FC90-95%
Product Type: Carbon Additive
C Content (%): 90-95% MIN
Working Temperature: -
S Content (%): 0.5%MAX
N Content (%): -
H Content (%): 0.6%MAX
Ash Content (%): 8.5%MAX
Volatile: 2%MAX
ADVANTAGE: low ash & sulfur
COLOR: Black
RAW MATERIAL: TaiXi anthracite
Feature
Calcined Coal FC 90-95% for Steelmaking
Specifications (%): | ||||||
Grade | F.C | Ash | V.M | Moisture | S | Size |
CR-95 | ≥95 | <4 | <1 | <1 | <0.3 | 0-30mm |
CR-94 | ≥94 | <4 | <1 | <1 | <0.3 | |
CR-93 | ≥93 | <6 | <1 | <1 | <0.4 | |
CR-92 | ≥92 | <7 | <1 | <1 | <0.4 | |
CR-91 | ≥91 | <8 | <1 | <1 | <0.4 | |
CR-90 | ≥90 | <8.5 | <1.5 | <2 | <0.4 | |
Image
Calcined Coal FC 90-95% for Steelmaking
FAQ:
Calcined Coal FC 90-95% for Steelmaking
Why we adopt carbon additive?
Carbon Additives used as additive in steel making process. It made from well-selected Tai Xi anthracite which is low in content of ash, sulphur, phosphorus, high heat productivity, high chemically activation.
Mainly industry property of it is: instead of traditional pertroleum coal of Carbon Additives, reduce the cost of steelmaking.
Advantage:
Calcined Coal FC 90-95% for Steelmaking
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:What is carbon pricing?
- Carbon pricing refers to a policy mechanism that aims to reduce greenhouse gas emissions by assigning a monetary value to carbon dioxide and other greenhouse gas emissions. It essentially puts a price on the carbon content of fossil fuels and other activities that release greenhouse gases into the atmosphere. The main objective of carbon pricing is to incentivize businesses, industries, and individuals to reduce their carbon emissions by making it more economically viable to adopt cleaner and more sustainable practices. There are two primary methods of carbon pricing: carbon taxes and cap-and-trade systems. A carbon tax sets a fixed price per ton of carbon emissions, which businesses and industries must pay based on their emissions levels. This tax creates a financial incentive for companies to reduce their emissions to avoid higher costs. On the other hand, cap-and-trade systems set a limit, or cap, on the total amount of emissions allowed in a given period. Companies are then allocated a certain number of emissions permits, which they can buy, sell, or trade with other companies. This system creates a market for emissions, where companies that can reduce their emissions more easily can sell their surplus permits to those struggling to meet their targets. The revenue generated from carbon pricing can be used in various ways. It can be reinvested into renewable energy projects, energy efficiency initiatives, or research and development of clean technologies. It can also be used to support vulnerable communities affected by the transition to a low-carbon economy or to offset the economic impacts on industries that may face challenges in reducing their emissions. Carbon pricing is considered an effective tool for tackling climate change, as it provides a clear economic signal to businesses and individuals to reduce their carbon footprint. By placing a price on carbon, it internalizes the costs associated with climate change and encourages the adoption of cleaner alternatives. It also helps to level the playing field between polluting industries and those investing in low-carbon technologies, creating an incentive for innovation and the development of sustainable practices.
- Q:What is the carbon cycle?
- The carbon cycle refers to the process by which carbon is exchanged and recycled between the Earth's atmosphere, oceans, and land. It involves various natural processes such as photosynthesis, respiration, decomposition, and combustion, as well as human activities such as burning fossil fuels and deforestation. This cycle helps regulate the Earth's climate and is crucial for maintaining the balance of carbon dioxide in the atmosphere.
- Q:What are the limitations of carbon dating?
- Carbon dating, also known as radiocarbon dating, is widely used to determine the age of organic materials up to 50,000 years old. Despite its significant contributions to archaeology and paleontology, researchers must be aware of its limitations. One limitation is the inability of carbon dating to accurately date materials beyond the 50,000-year mark. This is because the isotope carbon-14, used in carbon dating, has a half-life of only 5,730 years. Consequently, after multiple half-lives, there is insufficient carbon-14 remaining in a sample to determine its age accurately. Another limitation is the reliance on organic material. Carbon dating can only be applied to organic materials like bones, shells, wood, and charcoal. It is not applicable to inorganic materials such as rocks or minerals. Additionally, the presence of contaminants like humic acids or carbonates can distort the carbon dating results. Furthermore, carbon dating is limited in that it provides only a relative age for the sample. It establishes the ratio of carbon-14 to carbon-12 in the sample and compares it to the known ratio in the atmosphere. By assuming that this ratio has remained constant over time, an estimate of the sample's age can be made. However, variations in atmospheric carbon-14 levels over time can affect the accuracy of this method. Moreover, carbon dating can be influenced by nuclear testing and other human activities that release significant amounts of carbon-14 into the atmosphere. This phenomenon, known as the "bomb effect," can lead to artificially younger dates for samples collected after the mid-20th century. Lastly, the size and condition of the sample can limit the accuracy of carbon dating. Sufficient organic material is required for analysis to obtain precise results. This poses challenges when dealing with small or degraded samples, as the carbon-14 content may be insufficient or contaminated. In conclusion, while carbon dating is a valuable tool for determining the age of organic materials, it has limitations. Researchers must consider these limitations and exercise caution when interpreting the results, taking into account factors such as the age range, sample type, presence of contaminants, atmospheric variations, and sample size.
- Q:How do fossil fuels release carbon dioxide when burned?
- By burning fossil fuels, carbon dioxide (CO2) is released as a byproduct. This occurrence is a result of the chemical makeup of fossil fuels. Fossil fuels, including coal, oil, and natural gas, primarily consist of hydrocarbons, which are compounds made up of carbon and hydrogen atoms. During the process of combustion, these hydrocarbons undergo a reaction with oxygen (O2) present in the air, leading to the production of carbon dioxide and water vapor. The chemical equation for the combustion of a hydrocarbon fuel, like the octane found in gasoline, can be represented as follows: C8H18 + 12.5O2 → 8CO2 + 9H2O In this reaction, each molecule of octane (C8H18) combines with 12.5 molecules of oxygen (O2) to yield 8 molecules of carbon dioxide (CO2) and 9 molecules of water (H2O). The carbon atoms contained within the hydrocarbons of fossil fuels bond with oxygen to create carbon dioxide. This release of carbon dioxide into the atmosphere is what contributes to the greenhouse effect and global warming. The combustion of fossil fuels serves as a significant source of anthropogenic (human-caused) carbon dioxide emissions, making up a substantial portion of the greenhouse gases discharged into the atmosphere. It is important to acknowledge that the burning of fossil fuels also results in the release of other harmful pollutants, such as sulfur dioxide (SO2) and nitrogen oxides (NOx), which have detrimental effects on air quality and human health. To address the adverse impacts of fossil fuel combustion, endeavors are underway to develop cleaner and more sustainable sources of energy, such as renewable energy, in order to diminish our reliance on fossil fuels and decrease carbon dioxide emissions.
- Q:Is aluminum alloy expensive or high carbon steel expensive?
- Here is a concept to be worked out:High carbon steel is more carbon in iron. The strength is better than general iron.Aluminum alloy is not pure aluminum, if it is pure aluminum frame, it can not be used as frame, aluminum alloy frame generally after T6 (T4), the intensity is absolutely guaranteed.Now the material is generally so divided:The iron - Aluminum Alloy frame - magnesium alloy - titanium alloy, carbon fiberThe top is divided into grades.
- Q:Appearance, hardness, electrical conductivity, use of carbon 60
- C60 is a molecule composed of 60 carbon atoms in the molecule, it is like football, so also known as footballene (C60. This material is composed of C60 molecules, rather than by the atoms.) C60 is simply made of carbon atoms with stable molecules, it has 60 vertices and 32 sides. The 12 is Pentagon and 20 hexagon. Its molecular weight is about 720.
- Q:Wrought iron, steel, cast iron, cast iron, according to the content of the carbon? How many?
- That is not all according to the carbon content is divided. Because the carbon content of iron and iron.
- Q:What are the properties of carbon nanotubes?
- Cylindrical structures made entirely of carbon atoms are known as carbon nanotubes. They possess a distinct set of properties that make them highly sought after in various fields of science and technology. Some of the notable properties of carbon nanotubes are as follows: 1. Remarkable strength and stiffness: Carbon nanotubes have an exceptional strength-to-weight ratio, making them one of the strongest materials discovered so far. They are approximately 100 times stronger than steel, yet significantly lighter. This characteristic renders them suitable for applications requiring lightweight materials with high strength. 2. Excellent electrical conductivity: Carbon nanotubes exhibit excellent electrical conductivity, enabling efficient flow of electrical current. They can be utilized as conductive components in diverse electronic devices, including transistors, sensors, and energy storage systems. 3. Efficient thermal conductivity: Carbon nanotubes possess high thermal conductivity, allowing efficient heat transfer. This property makes them ideal for applications requiring effective dissipation of heat, such as thermal management in electronic devices. 4. Flexibility and resilience: Carbon nanotubes are highly flexible and can endure substantial deformation without fracturing. They can be bent and twisted without compromising their structural integrity, making them suitable for applications demanding flexibility, such as flexible electronics. 5. Unique optical and mechanical properties: Carbon nanotubes possess distinctive optical properties that vary depending on their structure and arrangement. They can absorb and emit light across a wide range of wavelengths, making them valuable in applications like photodetectors and solar cells. Additionally, their mechanical properties, including elastic deformation, contribute to their usefulness in applications requiring shock absorption and impact resistance. 6. Chemical stability: Carbon nanotubes exhibit high chemical stability, enabling them to resist degradation or corrosion when exposed to different chemical environments. This characteristic makes them suitable for applications in harsh conditions or as protective coatings. 7. Large aspect ratio: Carbon nanotubes possess a high aspect ratio, with lengths often exceeding thousands of times their diameter. This characteristic allows them to form robust and lightweight composite materials when integrated into a matrix, enhancing the overall strength and stiffness of the composite. In conclusion, the combination of properties displayed by carbon nanotubes makes them an intriguing and versatile material with enormous potential in various applications, including electronics, aerospace, medicine, and energy storage.
- Q:What are the challenges and opportunities of transitioning to a low-carbon economy?
- Transitioning to a low-carbon economy presents both challenges and opportunities. On the one hand, one of the major challenges is the need for significant changes in infrastructure, technology, and behavior. This transition requires substantial investments in renewable energy sources, energy-efficient buildings, and sustainable transportation systems. It also entails a shift away from fossil fuels, which have been deeply embedded in our economies for centuries. Another challenge is the potential economic impact on industries that heavily rely on carbon-intensive activities. Sectors such as coal mining, oil refining, and traditional manufacturing may face job losses and economic disruptions. The transition will require careful planning and support to ensure a just and inclusive transition for affected workers and communities. However, transitioning to a low-carbon economy also offers numerous opportunities. Firstly, it can spur innovation and create new industries and job opportunities. The development and deployment of renewable energy technologies, such as solar and wind power, can foster economic growth and provide employment in manufacturing, installation, and maintenance. It also promotes research and development in clean technologies, leading to breakthroughs and discoveries that can benefit various sectors. Secondly, transitioning to a low-carbon economy can improve public health and quality of life. By reducing reliance on fossil fuels, we can mitigate air pollution and its related health issues, such as respiratory problems and cardiovascular diseases. Additionally, investments in energy-efficient buildings can enhance comfort, reduce energy costs, and improve indoor air quality. Furthermore, transitioning to a low-carbon economy can enhance energy security and reduce geopolitical tensions. By diversifying energy sources and reducing dependence on fossil fuel imports, countries can increase their resilience to price fluctuations and geopolitical conflicts. This shift also promotes energy independence and reduces the need for costly military interventions in resource-rich regions. Lastly, transitioning to a low-carbon economy is essential for combating climate change and protecting the environment. By reducing greenhouse gas emissions, we can mitigate the impacts of global warming, such as extreme weather events, rising sea levels, and ecosystem disruptions. This transition allows us to preserve biodiversity, protect natural resources, and create a sustainable future for future generations. In conclusion, transitioning to a low-carbon economy brings challenges, including infrastructure changes, economic disruptions, and job losses. However, it also presents opportunities for innovation, job creation, improved public health, enhanced energy security, and environmental protection. With careful planning, collaboration, and support, the challenges can be overcome, and the opportunities can be maximized, leading to a more sustainable and prosperous future.
- Q:How is carbon used in the water treatment process?
- The water treatment process employs carbon in various ways. Activated carbon, which possesses a high porosity and a large surface area, is commonly utilized. This enables it to efficiently adsorb and eliminate impurities from water. Water treatment facilities often employ activated carbon in the form of granules, pellets, or blocks. It can be introduced at different stages of the treatment process. For instance, during the initial filtration stage, activated carbon can be utilized to eliminate particles that can affect the water's taste and smell, such as sediment and chlorine byproducts. Moreover, activated carbon is highly effective in eliminating organic compounds, including pesticides, herbicides, and industrial chemicals, that may exist in the water. The consumption of these compounds can be detrimental to human health, thus the use of activated carbon ensures the safety of drinking water. Another method in which carbon is employed in water treatment is through carbonation. This procedure involves injecting carbon dioxide gas into the water, which aids in reducing its pH level. Carbonation is commonly employed in the treatment of alkaline water sources, as it neutralizes the water and makes it more suitable for consumption. In conclusion, carbon plays a vital role in the water treatment process as it efficiently removes impurities and enhances the quality of drinking water. Its ability to adsorb makes it an invaluable tool in guaranteeing the safety and healthiness of water.
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Calcined Anthracite Coal FC 90-95% for Steelmaking
- Ref Price:
-
- Loading Port:
- Tianjin
- Payment Terms:
- TT or LC
- Min Order Qty:
- 20 m.t.
- Supply Capability:
- 10000 m.t./month
OKorder Service Pledge
Quality Product, Order Online Tracking, Timely Delivery
OKorder Financial Service
Credit Rating, Credit Services, Credit Purchasing
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