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: How does carbon contribute to the structure of DNA?: Carbon is a crucial element in the structure of DNA. It plays a fundamental role in the formation of the sugar-phosphate backbone of the DNA molecule. The backbone is composed of alternating sugar and phosphate molecules, and the sugar molecule in DNA is deoxyribose. Carbon is a major component of deoxyribose, with each deoxyribose sugar containing five carbon atoms. These carbon atoms provide the backbone with stability and rigidity, allowing it to maintain the overall structure of the DNA molecule. Furthermore, carbon is also involved in the formation of the nitrogenous bases that make up the rungs of the DNA ladder. There are four nitrogenous bases in DNA: adenine (A), guanine (G), cytosine (C), and thymine (T). Carbon atoms are present in the structure of each of these bases, contributing to their unique chemical properties. Carbon-containing functional groups, such as amino and keto groups, participate in hydrogen bonding and stacking interactions that determine the base pairing within the DNA double helix. In summary, carbon is an essential component of DNA's structure. It contributes to the stability and rigidity of the sugar-phosphate backbone and is also involved in the formation of the nitrogenous bases. The unique properties of carbon allow DNA to maintain its double helix structure and facilitate the accurate transmission of genetic information.

Q: What are the effects of carbon emissions on the stability of ice shelves?: Carbon emissions have significant effects on the stability of ice shelves. As carbon dioxide (CO2) and other greenhouse gases are released into the atmosphere, they trap heat and contribute to global warming. This increased global temperature leads to the melting of ice shelves and glaciers. One of the primary effects of carbon emissions on ice shelves is the acceleration of their melting rates. Higher atmospheric temperatures cause more ice to melt, which in turn increases the amount of water flowing into the ocean. This added influx of freshwater can disrupt the delicate balance between the ice shelf and the ocean, potentially leading to ice shelf collapse. Additionally, carbon emissions contribute to the thinning of ice shelves. As the atmosphere warms, the air temperature above the ice shelves rises, leading to increased surface melting. This meltwater then flows into crevasses and cracks, causing further fracturing and weakening of the ice shelves. Over time, this thinning can make the ice shelves more susceptible to breaking apart. The melting of ice shelves due to carbon emissions also has indirect effects on the stability of surrounding ice sheets. Ice shelves act as a buttress, providing resistance to the flow of ice from the glaciers into the ocean. When ice shelves collapse or thin, this resistance is diminished, allowing glaciers to flow more freely into the ocean. This process leads to increased sea level rise, which has significant implications for coastal regions around the world. Furthermore, the loss of ice shelves can disrupt the ecosystem and biodiversity of the surrounding areas. Ice shelves provide a platform for various species, including seals and penguins, to breed and feed. When ice shelves disintegrate, these habitats are destroyed, impacting the entire food chain and ecosystem dynamics. Overall, carbon emissions from human activities have profound effects on the stability of ice shelves. The melting, thinning, and collapse of ice shelves contribute to rising sea levels, disrupt ecosystems, and have far-reaching consequences for coastal communities. It is crucial to mitigate carbon emissions and take proactive measures to protect these vulnerable ice shelves and the delicate balance they maintain in our global climate system.

Q: How is carbon used in the production of filters?: Due to its unique properties, carbon finds common usage in filter production. One of the primary applications of carbon in filters is its capacity to adsorb impurities and contaminants, attracting and retaining them. This is attributed to carbon's extensive surface area and multitude of minute pores, enabling it to effectively capture and eliminate particles, chemicals, and odors from substances like air, water, and more. In air filters, carbon is frequently combined with other materials, such as activated charcoal, to form activated carbon filters. These filters are utilized to eradicate air pollutants, allergens, and odors. The activated carbon adsorbs the contaminants, entrapping them within its porous structure and ultimately enhancing the overall air quality. In water filters, carbon can be employed in diverse forms, like granular activated carbon (GAC) or carbon block filters. GAC filters are widely utilized in household water filtration systems and are adept at eliminating chlorine, volatile organic compounds (VOCs), pesticides, and other chemicals. Conversely, carbon block filters are produced by compressing activated carbon into a solid block, thus providing a greater surface area and superior filtration efficiency. Apart from air and water filters, carbon is also utilized in various other filter types, such as those utilized in industrial processes, gas masks, and respirators. The versatility of carbon in filtering applications stems from its capability to adsorb a broad range of contaminants and its high adsorption capacity. Its inclusion in filters aids in enhancing the quality and safety of the substances undergoing filtration, rendering it an indispensable material in numerous filtration processes.

Q: Where do I buy DNF premium advanced carbon?: And other activities, holidays, gift packs and so on, in the mall to buy, but now are colorless strengthening! Want to really want to use RMB to strengthen a little higher, directly to strengthen the volume!

Q: How does carbon affect the pH of rainwater?: Carbon dioxide (CO2) in the atmosphere can dissolve in rainwater to form carbonic acid (H2CO3), which lowers the pH of rainwater, making it more acidic.

Q: How is activated carbon produced?: Activated carbon is produced by heating carbon-rich materials, such as wood, coal, or coconut shells, at high temperatures in the absence of oxygen. This process, known as activation, creates a highly porous material with a large surface area, which gives activated carbon its adsorptive properties.

Q: What are the consequences of increased carbon emissions on indigenous communities?: Increased carbon emissions have severe consequences on indigenous communities. One of the most immediate impacts is the degradation of their traditional lands and natural resources. Carbon emissions contribute to global warming, leading to rising temperatures, changing weather patterns, and more frequent and intense natural disasters such as hurricanes, droughts, and wildfires. These events can destroy crops, damage infrastructure, and displace indigenous peoples from their ancestral territories. Moreover, carbon emissions contribute to air pollution, which disproportionately affects indigenous communities who often live near industrial facilities and are exposed to higher levels of toxic pollutants. This can lead to respiratory illnesses, cardiovascular diseases, and other health issues, exacerbating existing health disparities. The loss of biodiversity caused by climate change also affects indigenous communities who rely on traditional knowledge and practices for sustainable resource management. Changes in ecosystems disrupt the availability and abundance of food, water, and medicinal plants, undermining indigenous cultures and traditional livelihoods. Furthermore, many indigenous communities are highly dependent on natural resources for economic development, such as fishing, hunting, and agriculture. With increased carbon emissions, these resources become scarcer and less reliable, posing economic challenges and creating financial insecurity for indigenous communities. In addition to these environmental and economic consequences, increased carbon emissions also contribute to the loss of cultural heritage and identity. Indigenous communities have a deep connection to their territories and the natural world, which is threatened by the impacts of climate change. This loss of cultural heritage is not only detrimental to indigenous communities but also to humanity as a whole, as it diminishes the diversity of human knowledge and perspectives. Overall, the consequences of increased carbon emissions on indigenous communities are wide-ranging and severe. They not only undermine their traditional lands, resources, and health but also erode their cultural heritage and identity. Recognizing and addressing these impacts is crucial to ensure the protection and well-being of indigenous communities and to mitigate the effects of climate change on a global scale.

Q: What is carbon dioxide?: Comprising carbon and oxygen atoms, carbon dioxide (CO2) is an odorless and colorless gas. Its formation stems from the combustion of fossil fuels, respiration, and volcanic activity. In the Earth's atmosphere, carbon dioxide serves as a crucial greenhouse gas, effectively trapping heat and impacting the planet's overall temperature. Although it occurs naturally, human actions, such as burning fossil fuels and deforestation, have significantly escalated its presence in the atmosphere, consequently leading to global warming and climate change. Additionally, carbon dioxide is a byproduct of diverse industrial processes, including cement production and power generation. Thus, reducing carbon dioxide emissions is paramount to mitigating the consequences of climate change and preserving a sustainable environment.

Q: What are the effects of carbon emissions on animal populations?: Carbon emissions have profound effects on animal populations. One of the main consequences is the disruption of ecosystems and the loss of habitats. As carbon dioxide levels rise in the atmosphere, the Earth's temperature increases, leading to climate change. This change in climate can alter the availability of resources such as food and water, making it more difficult for animals to survive and reproduce. Additionally, carbon emissions contribute to ocean acidification. When carbon dioxide is absorbed by seawater, it reacts with water to form carbonic acid, which lowers the pH of the ocean. This acidification has detrimental effects on marine life, especially on species that rely on calcium carbonate to build their shells or skeletons, such as corals and shellfish. As their habitats become more corrosive, these animals struggle to survive and reproduce, leading to significant declines in their populations. Furthermore, carbon emissions are often associated with air pollution, which has direct and indirect impacts on animal populations. High levels of air pollution, specifically from pollutants like nitrogen dioxide and particulate matter, can cause respiratory problems and other health issues in animals. This can lead to reduced fitness and increased mortality rates, ultimately affecting the overall population size. Lastly, carbon emissions contribute to deforestation and habitat destruction. As more land is cleared for human activities like agriculture or urbanization, animal populations lose their natural habitats and are forced to adapt to fragmented landscapes. This fragmentation restricts their movement, limits access to resources, and increases their vulnerability to predation and other threats. In conclusion, carbon emissions have far-reaching effects on animal populations, including habitat loss, climate change, ocean acidification, air pollution, and deforestation. These impacts disrupt ecosystems and threaten the survival of many animal species. It is crucial to address carbon emissions and reduce our carbon footprint to mitigate these detrimental effects and protect the diversity of life on Earth.

Q: How does carbon affect the acidity of oceans?: The acidity of oceans is greatly influenced by carbon dioxide (CO2). Human activities like burning fossil fuels and deforestation release CO2 into the atmosphere, a significant portion of which is absorbed by the oceans. This absorption, known as ocean acidification, causes an increase in hydrogen ions in the water, leading to lower pH levels and higher acidity. When CO2 dissolves in seawater, it combines with water molecules to create carbonic acid (H2CO3). This chemical reaction releases hydrogen ions (H+), which elevate the water's acidity. The increased acidity disrupts the delicate chemical balance necessary for life in the ocean, especially reactions involving calcium carbonate. Calcium carbonate plays a vital role in the formation of shells and skeletons for various marine organisms, such as corals, shellfish, and certain plankton. As ocean acidity rises, it becomes more challenging for these creatures to construct and maintain their calcium carbonate structures. This can result in stunted growth, weakened shells, and heightened susceptibility to predators and diseases. Ocean acidification also has implications for the entire marine food chain. Many species depend on shell-forming organisms as a food source or as habitats, and their decline can have a ripple effect on the entire ecosystem. Additionally, acidification can disrupt the balance of phytoplankton, which are microscopic plants crucial for marine food chains. Furthermore, carbon dioxide in the ocean can interact with water to generate bicarbonate ions (HCO3-) and carbonate ions (CO32-). These ions are crucial for maintaining proper pH levels and enabling marine organisms to regulate their internal chemistry. However, as CO2 levels increase, the concentration of carbonate ions decreases, making it more challenging for organisms to obtain the carbonate they need to build their shells and skeletons. Overall, the impact of carbon on ocean acidity is significant and has far-reaching consequences for marine life. It is essential to reduce carbon emissions and implement measures to mitigate and adapt to the effects of ocean acidification in order to safeguard the health and biodiversity of our oceans.

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