Carbon Electrode With High And Stable Quality

Carbon Electrode With High And Stable Quality

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 20 m.t.

Supply Capability:: 800 m.t./month

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Carbon Electrode With High And Stable Quality

Product Description

Carbon Electrode is abaked electrode used in submerged arc furnaces for delivering power to the charge mix. Electrode is added to the top of the electrode column cylindrical form. Electrode is essentially a mix of Electrically Calcined Anthracite (ECA) or Calcined Petroleum Coke (CPC) with Coal Tar Pitch and is baked for weeks, it is widly used for ferroally productiong, silicon metal production etc.

Features

1:carbon eletrode
2:for ferroalloy,calcium carbide， silicon metal, manufacture

Graphite/Carbon Electrode Paste Specification

PARAMETER UNIT GUARANTEE VALUE
Items	Φ500～Φ700		Φ750～Φ960		Φ1020～Φ1400
Rs μΩ.m	≤45	≤38	≤45	≤38		≤40
Bulk Desity g/cm3	≥1.55	≥1.58	≥1.55	≥1.58	≥1.55	≥1.58
Bending Strength MPa	3.5～7.5	4.0～7.5	3.5～7.5	4.0～7.5	3.5～7.5	4.0～7.5
Compressive Strength MPa	≥20.0	≥20.0	≥20.0	≥20.0	≥19.0	≥19.0
Compressive Strength MPa	3.2～4.8	3.0～4.6	3.2～4.8	3.0～4.6	3.2～4.8	3.0～4.6
Ash %	≤2.5	≤2.0	≤2.5	≤2.0	≤2.5	≤2.0

Carbon Electrode With High And Stable Quality

We Also supply all kind of carbon electrode paste and below materials, please contact us if you have any enquiry about it.

Calcined Anthracite

Calcined Petroleum Coke

Coke (Met Coke, Foundry Coke, Semi Coke)

Q:Helmet material: ABS composites, FRP, carbon fiber, what are the differences? How to tell good from bad?: ABS is a kind of thermoplastic material, glass steel is called composite materials, the helmet is a large part of carbon fiber prepreg epoxy resin has high temperature and high pressure molding, glass fiber and unsaturated resin molding, strength needless to say, of course, is the best carbon fiber, the price is also the most expensive.

Q:What are the impacts of carbon emissions on the stability of deserts?: Deserts are significantly affected by carbon emissions, which have various consequences. One major consequence is the worsening of desertification, where fertile land transforms into desert. Carbon emissions contribute to global warming, resulting in higher temperatures and increased evaporation. This, in turn, reduces soil moisture and increases aridity in desert regions, intensifying desertification and causing deserts to expand. Furthermore, carbon emissions also impact precipitation patterns, directly affecting desert stability. Climate change leads to shifts in weather patterns, causing some areas to experience reduced rainfall and others to face more frequent and intense droughts. These precipitation changes further worsen desertification processes and increase desert instability. Another effect of carbon emissions on desert stability is the increased occurrence and intensity of dust storms. As global warming leads to drier conditions and less vegetation cover, the risk of dust storms rises. These storms transport large amounts of fine particulate matter, including dust and sand, over long distances, resulting in negative consequences. Dust storms damage infrastructure, harm human health, degrade air quality, and contribute to desertification by removing fertile topsoil. Moreover, the impacts of carbon emissions on deserts extend beyond ecological stability and have socio-economic implications. Many desert communities rely on agriculture and natural resources for their livelihoods. The destabilization of deserts due to carbon emissions can reduce agricultural productivity, increase food insecurity, and cause economic hardship for these communities. Additionally, people may be displaced from desert regions due to desertification, leading to increased migration and social instability. In conclusion, the stability of deserts is greatly affected by carbon emissions. They intensify desertification, alter precipitation patterns, increase the frequency and intensity of dust storms, and have socio-economic consequences. It is vital to address carbon emissions through climate change mitigation strategies to minimize these impacts and ensure the long-term stability of desert ecosystems and the communities dependent on them.

Q:How is carbon used in the water treatment process?: Carbon is used in the water treatment process in a variety of ways. One common method is through the use of activated carbon, which is highly porous and has a large surface area. This allows it to effectively adsorb and remove impurities from water. Activated carbon is often used in the form of granules, pellets, or blocks in water treatment facilities. It can be added to the water during different stages of the treatment process. For example, during the initial filtration stage, activated carbon can be used to remove particles, such as sediment and chlorine byproducts, that can affect the taste and smell of the water. Additionally, activated carbon is effective in removing organic compounds, such as pesticides, herbicides, and industrial chemicals, that may be present in the water. These compounds can be harmful to human health if consumed, so the use of activated carbon helps to ensure the water is safe for drinking. Another way carbon is used in water treatment is through the process of carbonation. This involves the injection of carbon dioxide gas into the water, which helps to lower its pH level. Carbonation is often used in the treatment of alkaline water sources, as it helps to neutralize the water and make it more suitable for consumption. Overall, carbon plays a crucial role in the water treatment process by effectively removing impurities and improving the quality of drinking water. Its adsorption capabilities make it a valuable tool in ensuring that water is safe and healthy for consumption.

Q:What are the effects of carbon emissions on the stability of coastal ecosystems?: Carbon emissions have significant effects on the stability of coastal ecosystems. One of the primary consequences is ocean acidification, which occurs when excess carbon dioxide dissolves in seawater and lowers its pH. This acidification has detrimental effects on various marine organisms, particularly those that rely on calcium carbonate to build their shells, such as corals, oysters, and some types of plankton. As the water becomes more acidic, it becomes harder for these organisms to form and maintain their protective structures, leading to reduced growth rates, weakened shells, and increased vulnerability to predation and disease. Furthermore, carbon emissions contribute to global warming, resulting in rising sea levels and increased storm intensity. Coastal ecosystems, such as mangroves, salt marshes, and seagrass beds, act as buffers against storm surges and provide crucial habitat for many species. However, with rising sea levels, these ecosystems are at risk of being submerged, leading to the loss of their protective functions and the displacement of numerous plant and animal species. Additionally, climate change caused by carbon emissions alters ocean currents and disrupts the balance of nutrients in coastal waters. This can lead to changes in the distribution and abundance of marine species, affecting the entire food web. For instance, if certain species that serve as a food source or a predator are negatively impacted, it can cause a ripple effect throughout the ecosystem. Such disruptions can lead to reduced biodiversity, loss of key species, and ultimately, the collapse of entire coastal ecosystems. Overall, carbon emissions have far-reaching and detrimental effects on the stability of coastal ecosystems. It is crucial to reduce carbon emissions and mitigate the impacts of climate change to protect these fragile ecosystems and the countless species that depend on them.

Q:How is carbon used in the production of carbon nanomaterials?: Carbon is essential in creating carbon nanomaterials due to its role as the foundation for their distinct structure and properties. Various techniques are employed to manufacture carbon nanomaterials, including carbon nanotubes and graphene, all of which rely on manipulating and organizing carbon atoms. One commonly used method for producing carbon nanomaterials is chemical vapor deposition (CVD). In this process, a carbon-containing gas, such as methane or ethylene, is introduced into a high-temperature furnace. Within the furnace, the gas decomposes, releasing carbon atoms. Subsequently, these carbon atoms reform and create nanoscale structures, like carbon nanotubes or graphene, on a substrate or catalyst material. Another approach involves vaporizing carbon-containing compounds, such as carbon black or graphite, through techniques like laser ablation or arc discharge. The vaporized carbon then undergoes condensation and solidification, resulting in carbon nanomaterials with specific structures and properties. Both methods allow for precise manipulation of carbon atoms by controlling temperature, pressure, and the presence of catalysts or additives. This manipulation leads to the desired carbon nanomaterials, which possess exceptional mechanical, electrical, and thermal properties due to the unique arrangement of carbon atoms, such as the hexagonal lattice structure of graphene or the cylindrical structure of carbon nanotubes. In conclusion, carbon is a crucial element in carbon nanomaterial production, providing the necessary atoms and influencing their structure and properties. Understanding and controlling carbon's behavior at the atomic level empower scientists and engineers to develop nanomaterials with diverse applications, ranging from electronics and energy storage to medicine and environmental remediation.

Q:What is the carbon cycle?: The carbon cycle is a natural process that involves the movement of carbon dioxide (CO2) between the atmosphere, land, bodies of water, and living organisms. It is a vital component of Earth's ecosystem and plays a crucial role in regulating the planet's climate. The carbon cycle begins with the absorption of CO2 by plants during photosynthesis. Plants take in CO2 from the atmosphere and convert it into organic compounds, such as glucose, which they use for growth and energy. This process is known as carbon fixation. Consumers, such as animals, obtain carbon by consuming plants or other animals that have already incorporated carbon into their tissues. When plants and animals respire, they release CO2 back into the atmosphere, completing the first part of the cycle. Another pathway in the carbon cycle is the decomposition of organic matter by decomposers, such as bacteria and fungi. During decomposition, carbon is released as CO2 or enters the soil as organic carbon. This stored carbon can be later released back into the atmosphere through microbial respiration or erosion. The carbon cycle also involves the exchange of carbon between the atmosphere and bodies of water. When CO2 dissolves in water, it forms carbonic acid, leading to ocean acidification. Marine plants, such as algae and phytoplankton, play a crucial role in the cycle by photosynthesizing and absorbing CO2 from the water. Additionally, geological processes such as volcanic activity and weathering also release carbon into the atmosphere. Over long periods of time, carbon can be stored in the Earth's crust as fossil fuels, such as coal, oil, and natural gas. When these fossil fuels are burned for energy, they release large amounts of CO2, contributing to the greenhouse effect and climate change. The carbon cycle is a continuous and intricate process that maintains a delicate balance of carbon in the Earth's atmosphere and ecosystems. However, human activities, particularly the burning of fossil fuels and deforestation, have significantly altered this balance by releasing excessive amounts of CO2 into the atmosphere. This disruption of the carbon cycle has led to global warming and other environmental issues, highlighting the importance of understanding and mitigating human impacts on this vital natural process.

Q:Yes, I have a weapon, want to strengthen 11, said to be advanced furnace rock carbon, do not know how to get, look at the prawns pointing: Pro, tell you an unfortunate news, out of the eighty furnace rock carbon, old horse recycling, burning their own boilers, and now we strengthen the use of colorless small crystal block, that is, the colorless small crystal block instead of the original furnace rock carbon.

Q:Which carbon content is larger, steel or pig iron?: Iron and steel is distinguished by carbon: carbon content below 2.11% for carbon steel, according to can be divided into carbon steel low carbon steel (WC = 0.25%), carbon steel (WC0.25% - 0.6%) and high carbon steel (WC>0.6%);

Q:How is carbon used in the production of ceramics?: Carbon is used in the production of ceramics as a key component in the creation of carbon-based materials, such as carbon fibers or carbon nanotubes, which can be incorporated into ceramic matrices to enhance their mechanical properties, electrical conductivity, and thermal stability. Additionally, carbon can also be utilized as a reducing agent in certain ceramic processes, such as the production of silicon carbide, where it reacts with oxygen to remove impurities and stabilize the ceramic structure.

Q:How is carbon formed?: Carbon is formed through various natural processes, primarily through the decay and decomposition of organic matter such as plants and animals. Additionally, carbon can be formed through volcanic activity and the burning of fossil fuels.

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