Iron Alloy Application Carbon Electrode Paste Block
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- Loading Port:
- Lianyungang
- Payment Terms:
- TT OR LC
- Min Order Qty:
- 20 m.t.
- Supply Capability:
- 1000 m.t./month
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Spcifications
Iron Alloy Application Carbon Electrode Paste Block
1:carbon eletrode paste
2:for ferroalloy,calcium carbide manufacture
3:HS 3801300000,YB/T5212-1996,ISO9001:2008
Product Description
Iron Alloy Application Carbon Electrode Paste Block
Carbon Electrode Paste is a self-baking electrode used in submerged arc furnaces for delivering power to the charge mix. Electrode Paste is added to the top of the electrode column in either cylindrical or briquette form. As the paste moves down the electrode column the temperature increase causes the paste to melt and subsequently bake forming a block of electrically conductive carbon. Electrode Paste is essentially a mix of Electrically Calcined Anthracite (ECA) or Calcined Petroleum Coke (CPC) with Coal Tar Pitch.
Product Feature
Iron Alloy Application Carbon Electrode Paste Block
Ash 4.0%max5.0%max 6.0%max7.0% Max9.0% Max11.0% Max
VM 12.0%-15.5%12.0%-15.5%12.0%-15.5%9.5.0%-13.5%11.5%-15.5%11.5%-15.5%
Strength
Compress 18.0Mpa Min17.0Mpa Min15.7Mpa Min19.6Mpa Min19.6Mpa Min19.6Mpa Min
Specific 65μΩm Max68μΩm Max75μΩm Max80μΩm Max90μΩm Max90μΩm Max
Resistance
Bulk Density1.38G/CM3 Min1.38G/CM3 Min1.38G/CM3 Min1.38G/CM3 Min1.38G/CM3 Min1.38G/CM3 Min
Product Picture
Iron Alloy Application Carbon Electrode Paste Block
FAQ:
Iron Alloy Application Carbon Electrode Paste Block
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- Q:What is carbon nanocomposite coating?
- Carbon nanocomposite coating is a type of protective coating that is made using carbon nanotubes or other carbon-based nanoparticles. These nanoparticles are dispersed within a matrix material, such as polymer or metal, to create a thin film that can be applied onto various surfaces. The main purpose of carbon nanocomposite coatings is to enhance the mechanical, thermal, and electrical properties of the coated material. The addition of carbon nanoparticles improves the strength, hardness, and wear resistance of the coating, making it more durable and long-lasting. It also provides excellent corrosion resistance, making it suitable for applications in harsh environments. One of the key advantages of carbon nanocomposite coatings is their ability to provide multifunctional properties. For example, they can be engineered to have high electrical conductivity, which makes them ideal for applications in electronics and electrochemical devices. Additionally, they can have high thermal conductivity, making them useful for heat dissipation in electronic devices or as a thermal barrier coating. Moreover, carbon nanocomposite coatings have shown promising results in various fields such as aerospace, automotive, energy, and healthcare. In aerospace, they can be used to improve the performance and durability of aircraft components, while in the automotive industry, they can provide anti-scratch and self-cleaning properties. In energy applications, they can be utilized to enhance the efficiency of solar panels or to prevent corrosion in oil and gas pipelines. Additionally, in healthcare, they can be used for drug delivery, as antibacterial coatings, or for bio-sensing applications. Overall, carbon nanocomposite coatings offer a wide range of benefits, including improved mechanical and electrical properties, corrosion resistance, and multifunctionality. With ongoing research and development, these coatings hold great promise for various industries, providing innovative solutions to address their specific needs and challenges.
- Q:How does carbon affect the electrical conductivity of materials?
- Carbon can significantly affect the electrical conductivity of materials due to its unique electronic properties. Carbon atoms, when bonded together in a specific arrangement, can form different allotropes such as graphite, diamond, and fullerenes, each with distinct electrical conductive properties. Graphite, for example, is composed of layers of carbon atoms arranged in a hexagonal lattice structure. Within each layer, carbon atoms form strong covalent bonds, resulting in a stable structure. However, between the layers, weak van der Waals forces exist, allowing for easy movement of electrons in the plane of the layers. This delocalization of electrons in graphite leads to its high electrical conductivity, as the free electrons can move freely and carry electrical charges. On the other hand, diamond, another allotrope of carbon, has a three-dimensional covalent network structure. In this structure, each carbon atom forms four strong covalent bonds with its neighboring atoms, resulting in a highly rigid and stable lattice. The absence of free electrons in diamond restricts the movement of electrical charges, making it an insulator. Fullerenes, which are spherical carbon molecules, can have varying electrical conductive properties depending on their structure. Some fullerenes can behave as semiconductors, meaning their electrical conductivity can be manipulated by introducing impurities or applying external stimuli. In addition to these allotropes, carbon can also be used as a dopant in certain materials to enhance their electrical conductivity. For instance, doping silicon with small amounts of carbon can improve its electrical conductivity, resulting in materials suitable for electronic devices. Overall, carbon's influence on electrical conductivity is highly dependent on its structure and arrangement within a material. Understanding the different forms and properties of carbon can help engineers and scientists design materials with desired electrical conductive characteristics for various applications.
- Q:How does carbon affect the preservation of historical artifacts?
- Carbon can have both positive and negative effects on the preservation of historical artifacts. On one hand, carbon-based materials such as paper, wood, and textiles are susceptible to degradation over time. These artifacts can be easily affected by environmental factors such as temperature, humidity, and exposure to pollutants, leading to their decay. Carbon-based materials can also be attractive to pests like insects and rodents, further accelerating their deterioration. On the other hand, carbon-based materials like charcoal and carbonates can play a crucial role in the preservation of artifacts. Charcoal, for example, can be used to date artifacts through carbon dating, providing valuable insights into their age and historical significance. Carbonates, such as calcium carbonate found in limestone, can act as protective coatings, forming a barrier against environmental factors and preventing further decay. Moreover, carbon-based conservation treatments, such as consolidation with adhesives or impregnation with polymers, can help stabilize and strengthen fragile artifacts. These treatments can increase the artifact's resistance to environmental factors and provide structural support, extending its lifespan for future generations. It is important to note that while carbon-based materials can impact the preservation of historical artifacts, other factors like light exposure, handling, and storage conditions also play significant roles. Therefore, a comprehensive preservation strategy should consider all these factors to ensure the longevity and conservation of these valuable historical artifacts.
- Q:What is latent carbon?
- With prochiral carbon atoms called prochiral molecules.For potential chiral compounds, can also be used to determine the order of rule configuration. For example, an atom of hydrogen by deuterium methylene propionate (D) replaced, if converted into R configuration, the hydrogen atom is called latent -R (pro-R) hydrogen atoms into S; if the configuration is called latent -S (pro-S the hydrogen atom).For medical workers, prochiral is an important concept. Almost all of the biological chemical reaction is controlled by the enzyme, the enzyme for prochiral molecules not symmetrically reaction, so they are able to identify two identical atoms or atomic groups, because they are chiral compounds. For example two methylene citric acid and only one methylene by enzymes (from rat liver) into carbonyl group.
- Q:What are the impacts of carbon emissions on marine life?
- Marine life is significantly affected by carbon emissions, particularly the release of carbon dioxide (CO2) from burning fossil fuels. The primary consequence is ocean acidification, which occurs when seawater absorbs excess CO2, leading to a decrease in pH levels. This acidification has harmful effects on marine organisms, especially those with calcium carbonate shells or skeletons like corals, mollusks, and some plankton. As pH levels decrease, it becomes more challenging for these organisms to construct and maintain their shells. This can result in slower growth rates, weaker shells, and increased susceptibility to predation and disease. Furthermore, the dissolution of calcium carbonate shells due to ocean acidification can disrupt the entire food chain, as many organisms rely on these shells for protection or as a food source. In addition, carbon emissions contribute to global warming, resulting in rising sea temperatures. Warmer waters can cause coral bleaching, where corals expel the colorful algae living within their tissues, ultimately leading to the loss of their primary food source and eventual death. Coral reefs are crucial ecosystems that support a diverse range of marine life, and their decline has extensive consequences for biodiversity and coastal communities dependent on them for tourism and fisheries. The impacts of carbon emissions on marine life extend beyond individual species and ecosystems. Climate change, driven by carbon emissions, can disrupt ocean currents, alter weather patterns, and affect nutrient availability. These changes can influence the distribution and abundance of marine organisms, leading to shifts in species composition and potential loss of biodiversity. It is important to note that the impacts of carbon emissions on marine life are interconnected with other stressors such as overfishing, pollution, and habitat destruction. These combined pressures worsen the vulnerability of marine ecosystems and increase the risk of irreversible damage. To mitigate the impacts of carbon emissions on marine life, it is crucial to reduce greenhouse gas emissions. This can be achieved by transitioning to cleaner and renewable energy sources, improving energy efficiency, and adopting sustainable practices. Additionally, protecting and restoring marine habitats, implementing sustainable fishing practices, and reducing pollution can enhance the resilience of marine ecosystems and promote the recovery of marine life.
- Q:How does carbon dioxide affect climate change?
- Carbon dioxide (CO2) is a greenhouse gas that plays a significant role in climate change. When released into the atmosphere through natural processes like volcanic eruptions or human activities such as burning fossil fuels, CO2 traps heat from the sun and prevents it from escaping back into space, leading to a phenomenon known as the greenhouse effect. The increased concentration of CO2 in the atmosphere due to human activities, primarily the burning of fossil fuels like coal, oil, and natural gas, has led to an imbalance in the natural carbon cycle. This imbalance has resulted in a rapid increase in global CO2 levels, contributing to the warming of the Earth's surface and the subsequent changes in climate patterns. Since the Industrial Revolution, the burning of fossil fuels has caused a significant rise in atmospheric CO2 levels, increasing the Earth's average temperature. This rise in temperature affects various aspects of the climate system, leading to a range of impacts. One of the most evident consequences of increased CO2 levels is the rise in global temperatures. This temperature increase leads to the melting of glaciers and polar ice, causing sea levels to rise. Rising sea levels pose a threat to coastal areas and low-lying islands, resulting in increased flooding, coastal erosion, and the potential displacement of communities. Furthermore, elevated CO2 levels contribute to more frequent and intense heatwaves, droughts, and wildfires in many regions. These extreme weather events can have detrimental effects on agriculture, water availability, and human health. Carbon dioxide also affects the balance of ecosystems by altering the growth patterns and distribution of plant and animal species. Changes in temperature and precipitation patterns, driven by increased CO2 levels, disrupt the delicate web of life, leading to the loss of biodiversity and the potential extinction of certain species. To mitigate the impacts of CO2 on climate change, reducing greenhouse gas emissions is crucial. Transitioning to renewable energy sources, improving energy efficiency, and adopting sustainable practices are some of the steps that can help reduce CO2 emissions and limit the extent of climate change. Additionally, efforts to restore and protect forests and other natural carbon sinks can help absorb and store CO2, mitigating its effects on the climate.
- Q:What are the impacts of carbon emissions on the stability of permafrost?
- Carbon emissions have a significant impact on the stability of permafrost, which is the layer of soil, sediment, and rock that remains frozen for at least two consecutive years. This frozen layer covers vast areas in the Arctic, subarctic regions, and high-altitude mountain ranges. One of the main consequences of carbon emissions on permafrost stability is the acceleration of climate change. The emission of carbon dioxide (CO2) and other greenhouse gases traps heat in the atmosphere, resulting in global warming. As temperatures increase, permafrost begins to thaw, leading to various negative outcomes. Thawing permafrost releases a substantial amount of stored carbon into the atmosphere. This carbon was previously locked in frozen organic matter, such as dead plants and animals, which accumulated over thousands of years. When permafrost thaws, microbes decompose this organic matter and release greenhouse gases like carbon dioxide and methane. These emissions create a positive feedback loop, exacerbating climate change and causing further permafrost thawing. The release of carbon from thawing permafrost contributes to the overall rise in atmospheric greenhouse gas concentrations. This, in turn, amplifies global warming and global climate change. The consequences are not confined to the Arctic; they impact the entire planet. Rising temperatures, sea-level rise, extreme weather events, and disruptions to ecosystems are among the results of global climate change. Permafrost thaw also affects infrastructure and human settlements in the Arctic and subarctic regions. Buildings, roads, pipelines, and other infrastructure constructed on permafrost can become unstable as the ground beneath them softens. This instability can lead to structural damage and economic losses. Furthermore, communities that rely on permafrost for traditional activities like hunting, fishing, and transportation face challenges due to the changing landscape. The impacts of carbon emissions on permafrost stability extend beyond local areas and have global implications. The release of stored carbon from permafrost contributes to climate change, which has far-reaching consequences for ecosystems, economies, and societies worldwide. It is crucial to decrease carbon emissions and mitigate climate change to preserve permafrost and its essential role in the Earth's climate system.
- Q:What is the carbon content of different types of soil?
- The carbon content of different types of soil can vary significantly depending on factors such as vegetation cover, climate, and land use. Generally, soils with abundant plant growth and organic matter tend to have higher carbon content. For example, forest soils typically have higher carbon content compared to agricultural or desert soils. Additionally, the carbon content can vary within soil profiles, with surface layers often containing more carbon than deeper layers.
- Q:Often see the so-called 30T, 46T, 60T carbon fiber, 60T carbon fiber, equivalent to T hundreds of carbon fibers, is T800, or T1000? I'm not very good at parameter conversion. Is there a parameter list? How do I correspond to the T300T700T800 performance parameter table?
- Two, 46T, 60T refers to high modulus carbon fibers. M series; T1000 refers to the high strength carbon fiber, belonging to the T series; M series and T series belong to different performance products.
- Q:When is gold resistance better? When will carbon resistance be better?
- The gold resistance is of high accuracy, but the price is high. The resistance value of the carbon resistor is low, but it is cheap!
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Iron Alloy Application Carbon Electrode Paste Block
- Ref Price:
-
- Loading Port:
- Lianyungang
- Payment Terms:
- TT OR LC
- Min Order Qty:
- 20 m.t.
- Supply Capability:
- 1000 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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