Carbon Additve Recarburizer for Steelmaking

Carbon Additve Recarburizer for Steelmaking System 1

Carbon Additve Recarburizer for Steelmaking

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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

Carbon Additve Recarburizer 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

Carbon Additve Recarburizer 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

Carbon Additve Recarburizer for Steelmaking

Specifications (%):
Grade	F.C	Ash	V.M	Moisture	S	Size
CR-95	≥95	<4	<1	<1	<0.3	0-30mm As buyer's request.
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

Carbon Additve Recarburizer for Steelmaking

FAQ:

Carbon Additve Recarburizer 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:

Carbon Additve Recarburizer 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:Last night to go to the supermarket to buy 5 batteries, see Toshiba carbon batteries, I finally bought the super alkaline batteries, alkaline batteries and carbon is the difference in where? What kind of battery is best for digital cameras? Thank you: Alkaline battery discharge point, carbon battery's full name should be carbon zinc batteries (because it is the general level is the carbon rod electrode is the zinc skin), also known as zinc manganese battery, is currently the most common dry battery, it has the characteristics of low price and safe and reliable use, environmental factors based on the consideration.

Q:How is carbon used in the production of pigments?: The ability of carbon to create vibrant and deep colors makes it a common choice for pigments. These pigments, also known as carbon blacks, are produced by incomplete combustion of hydrocarbons like natural gas or petroleum. The resulting carbon particles are then processed and purified to create a fine powder that serves as a pigment. Various industries, including inks, paints, plastics, and cosmetics, utilize these carbon-based pigments. In the ink production process, carbon black is frequently added to enhance color intensity and opacity. Similarly, in the manufacturing of paints and coatings, it is used to provide a rich and deep black color. Plastics can be enhanced by adding carbon black, which improves their UV resistance, making them more durable and long-lasting. This is especially crucial for outdoor applications where exposure to sunlight can lead to fading and degradation. Carbon-based pigments are also widely used in the cosmetics industry. They are incorporated into products like eyeliners, mascaras, and lipsticks to create intense black or dark shades. The stability and consistent color delivery of carbon black pigments make them a preferred choice in cosmetics. In summary, the ability of carbon to create vibrant and deep colors makes it extensively used in pigment production. Carbon-based pigments have diverse applications in various industries, enhancing color intensity, providing UV resistance, and delivering rich black shades.

Q:How does carbon dioxide affect the pH of soil?: Carbon dioxide can affect the pH of soil through a process called carbonation. When carbon dioxide dissolves in water, it forms carbonic acid (H2CO3), which is a weak acid. When this acid is present in soil, it can react with certain minerals and compounds, such as limestone or calcium carbonate, found in the soil, resulting in their dissolution. This process releases positively charged ions, such as calcium (Ca2+) or magnesium (Mg2+), into the soil solution, which can increase the soil's alkalinity or raise the pH. Additionally, the presence of carbonic acid can also increase the availability of certain nutrients in the soil. For example, it can enhance the solubility of phosphorus, making it more accessible for plants to uptake. This can lead to an increase in soil fertility. However, it is important to note that the effect of carbon dioxide on soil pH can vary depending on different factors, such as the concentration of carbon dioxide, soil type, and the presence of buffering agents. In some cases, the buffering capacity of the soil can limit the impact of carbonic acid on pH changes. Therefore, while carbon dioxide can influence soil pH, it is just one factor among many that can affect the overall acidity or alkalinity of soil.

Q:What is latent carbon?: Prochiral carbon atom (prochiral carbon atoms).A company has four completely different carbon atoms or groups of atoms is called chiral carbon atoms. When a carbon atom with two identical and two different atoms or groups of atoms such as Caabe, the carbon atom is called prochiral carbon atom (prochiral carbon) or prochiral center. If the two of the same atom or group of atoms (a, one of the many hydrogen atoms) is a different from a, B, e atom or group of atoms substituted by the D, get a new chiral carbon atoms such as methylene Cabed. ethanol and propionic acid molecules in the carbon atom is prochiral carbon atoms.

Q:What are the consequences of increased carbon emissions on vulnerable communities?: Increased carbon emissions have severe consequences on vulnerable communities. Firstly, these communities often lack the resources and infrastructure to adapt to and mitigate the effects of climate change. As carbon emissions contribute to global warming, vulnerable communities are more likely to experience extreme weather events such as hurricanes, floods, and heatwaves. These events can result in displacement, loss of homes, and even loss of lives, disproportionately impacting those who are already marginalized. Furthermore, increased carbon emissions contribute to air pollution, which poses significant health risks to vulnerable communities. People living in low-income areas often reside near industrial plants or highways with high levels of emissions, leading to an increased risk of respiratory diseases, cardiovascular problems, and other health issues. Children, the elderly, and individuals with pre-existing health conditions are particularly vulnerable. The consequences of increased carbon emissions also extend to food security. Climate change affects agriculture and alters growing seasons, leading to reduced crop yields and food shortages. Vulnerable communities heavily reliant on subsistence farming or areas prone to droughts or floods face the risk of malnutrition and hunger. This exacerbates existing inequalities and can lead to social unrest and economic instability. In addition, vulnerable communities often rely on natural resources for their livelihoods, such as fishing, forestry, or tourism. The negative impacts of carbon emissions, like ocean acidification and coral bleaching, threaten these industries, resulting in job losses and economic decline. This further perpetuates the cycle of poverty and socio-economic vulnerability. Ultimately, increased carbon emissions disproportionately harm vulnerable communities by amplifying existing inequalities and exacerbating the challenges they face. It is crucial to address these consequences through climate mitigation efforts, adaptation strategies, and support for sustainable development.

Q:How does carbon affect the formation of smog?: Smog formation heavily relies on carbon's role, particularly through carbon monoxide (CO) and volatile organic compounds (VOCs). Burning fossil fuels, like in vehicles, power plants, or industrial processes, releases carbon into the atmosphere as CO and VOCs. These carbon emissions, especially in densely populated areas, contribute to smog formation. Smog consists of various air pollutants, primarily ground-level ozone, formed when nitrogen oxides (NOx) and VOCs react in sunlight's presence. Ground-level ozone formation starts with carbon monoxide. It reacts with nitrogen oxides and sunlight, resulting in ozone, a key smog component. VOCs, on the other hand, combine with nitrogen oxides in sunlight to create more ground-level ozone. Moreover, carbon particles, also called black carbon or soot, can contribute to smog formation. These particles absorb sunlight, heating the surrounding air and causing temperature inversions. These inversions trap pollutants near the ground, preventing dispersion and worsening smog formation. Controlling and preventing smog formation relies heavily on reducing carbon emissions. Implementing cleaner technologies, such as catalytic converters in vehicles and cleaner fuels, helps decrease CO and VOC release. Additionally, promoting renewable energy sources and reducing reliance on fossil fuels significantly reduces carbon emissions, thereby mitigating smog formation.

Q:How does carbon impact the stability of savannah ecosystems?: The stability of savannah ecosystems relies heavily on carbon, which is crucial for all living organisms and involved in various ecological processes. Carbon exists primarily in the form of organic matter, which is vital for the growth and development of plants, the primary producers in these ecosystems. In savannahs, carbon affects stability in multiple ways. Firstly, carbon dioxide (CO2) plays a significant role in regulating the global climate as a key component of the Earth's atmosphere. Savannahs have the ability to sequester and store large amounts of carbon in their vegetation and soils, thereby mitigating climate change by reducing CO2 levels in the atmosphere. Carbon is also essential for plant growth through photosynthesis. Savannah plants, like grasses and scattered trees, utilize carbon dioxide from the air to produce carbohydrates and other organic compounds. This process not only provides plants with energy but also contributes to the overall productivity of the ecosystem. The stability of savannah ecosystems is also dependent on the interaction between plants and animals. Carbon-rich vegetation serves as a food source for herbivores, which in turn support predators. The carbon cycle ensures a continuous flow of energy and nutrients throughout the food web, maintaining ecosystem balance and stability. Moreover, the carbon content in savannah soils affects their fertility and ability to retain moisture. Organic matter derived from decaying plant material improves soil structure, nutrient availability, and water holding capacity. This, in turn, supports vegetation growth and sustains the diverse array of species found in savannah ecosystems. However, human activities such as deforestation, agricultural practices, and the burning of fossil fuels are disrupting the carbon balance in savannahs. Deforestation removes carbon-rich trees and plants, reducing the overall carbon storage capacity of the ecosystem. Additionally, the release of carbon dioxide from burning fossil fuels contributes to the greenhouse effect and climate change, which can disrupt savannah ecosystem stability. In conclusion, carbon plays a critical role in maintaining the stability of savannah ecosystems. It influences climate regulation, supports plant growth, provides energy for the food web, and enhances soil fertility. However, human activities that disrupt the carbon balance in these ecosystems can have detrimental effects on their stability and overall health. Therefore, it is essential to conserve and restore savannah ecosystems to preserve their carbon storage capacity and ensure long-term stability.

Q:How does carbon contribute to the structure of DNA?: Carbon is an essential element in the structure of DNA as it forms the backbone of the molecule. Carbon atoms in the sugar-phosphate backbone of DNA provide stability and flexibility, allowing the molecule to twist and fold into its double helix shape. Additionally, carbon atoms are also present in the nitrogenous bases, which are the building blocks of the genetic code. Overall, carbon's presence in DNA is crucial for its overall structure and function in storing and transmitting genetic information.

Q:What are the advantages of carbon nanotube transistors?: Carbon nanotube transistors offer several advantages compared to traditional silicon-based transistors. Firstly, carbon nanotubes have excellent electrical properties. They possess high electron mobility, which means that electrons can move through them quickly and easily. This allows for faster switching speeds and higher operating frequencies, making them ideal for high-performance applications such as computers and communication devices. Secondly, carbon nanotubes have a very small size. They can be as small as a few nanometers in diameter, which is several orders of magnitude smaller than the feature sizes of silicon transistors. This miniaturization potential enables the development of highly compact and densely packed electronic circuits, leading to higher integration levels and increased device functionality. Additionally, carbon nanotubes are more resistant to heat and have better thermal conductivity than silicon. This means that they can handle higher temperatures without degrading, allowing for more efficient operation and reducing the need for complex cooling systems. It also enables the fabrication of devices that can withstand harsh environments, making them suitable for applications in aerospace, automotive, and defense industries. Furthermore, carbon nanotubes are mechanically strong and flexible. They can be bent and stretched without breaking, making them suitable for use in flexible electronics and wearable devices. Their mechanical robustness also ensures long-term stability and reliability, leading to improved device performance and longevity. Lastly, carbon nanotube transistors can be fabricated using existing manufacturing processes, making them compatible with current semiconductor technologies. This means that they can be integrated into existing electronic systems without significant modifications, reducing the cost and time required for their implementation. Overall, the advantages of carbon nanotube transistors, including their high electrical performance, small size, thermal stability, mechanical strength, and compatibility with existing manufacturing processes, make them a promising alternative to traditional silicon transistors for future electronic applications.

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