Carbon Electrode With Φ500～Φ700 G Grade And Stable Quality

Carbon Electrode With Φ500～Φ700 G Grade 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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General Specification

PARAMETER UNIT GUARANTEE VALUE
Ash.( % )	4.0 max	5.0 max	6.0 max	7.0 max	9.0 max	11.0 max
V.M （%）	12.0-15.5	12.0-15.5	12.0-15.5	9.5-13.5	11.5-15.5	11.5-15.5
Compress Strength. (Mpa)	18.0 min	17 min	15.7 min	19.6 min	19.6 min	19.6 min
Specific Resistance （μΩm）	65 max	68 max	75 max	80 max	90 max	90 max
Bulk Density (G/CM3)	1.38 min	1.38 min	1.38 min	1.38 min	1.38 min	1.38 min

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 for ferroalloy,calcium carbide， silicon metal, production etc.

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Carbon Electrode With Φ500～Φ700 G Grade 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: What are the consequences of increased carbon emissions on coastal regions?: Coastal regions are significantly impacted by the increase in carbon emissions, with various alarming consequences. One particularly concerning effect is the rise in sea levels, which is caused by the melting of glaciers and polar ice caps due to the warming of the planet. This rise in sea levels poses threats such as increased flooding, erosion, and the loss of coastal ecosystems. Aside from the rise in sea levels, increased carbon emissions also contribute to ocean acidification. When seawater absorbs carbon dioxide, it forms carbonic acid, which lowers the pH of the ocean. This decrease in pH has harmful effects on marine life, especially on coral reefs and shellfish. The acidity of the waters makes it difficult for coral reefs to construct their calcium carbonate structures, leading to bleaching and eventual death. Similarly, shellfish like oysters, clams, and mussels struggle to develop their shells in more acidic waters, impacting their survival and the entire coastal food chain. Moreover, higher levels of carbon emissions contribute to the intensification of storms and extreme weather events. Rising temperatures in coastal regions result in more frequent and severe hurricanes, cyclones, and storm surges. These events cause extensive damage to coastal infrastructure, including homes, businesses, roads, and power lines. The increased frequency of storms also puts coastal communities at a higher risk of displacement and loss of livelihoods. Furthermore, increased carbon emissions contribute to global warming, which leads to higher air temperatures. The warming of coastal regions has adverse effects on the overall ecosystem. For example, warmer waters can cause certain species to migrate or become extinct, disrupting the delicate balance of coastal ecosystems. It can also impact the health and productivity of fisheries, affecting the livelihoods of fishing-dependent communities. To summarize, increased carbon emissions have wide-ranging consequences for coastal regions. Rising sea levels, ocean acidification, intensified storms, and the overall warming of coastal ecosystems pose significant threats to the environment, economies, and communities in these areas. It is crucial to reduce carbon emissions and take proactive measures to mitigate these consequences and protect our coastal regions for future generations.

Q: What are the impacts of carbon emissions on the stability of mangroves?: Mangroves, crucial coastal ecosystems, are negatively affected by carbon emissions, which have detrimental effects on their stability. The increased levels of carbon dioxide (CO2) in the atmosphere contribute to global warming, resulting in rising sea levels and more frequent and intense storms. These changes directly impact mangroves in several ways. Firstly, global warming causes rising sea levels, leading to more frequent inundation of mangroves. As the sea level rises, saltwater intrusion occurs more often, disrupting the delicate balance of saltwater and freshwater in mangrove ecosystems. This can displace and cause a decline in mangroves, as they struggle to adapt to the changing conditions. Secondly, the increased frequency and intensity of storms due to climate change can physically damage mangroves. Mangroves act as a natural barrier, absorbing wave energy and protecting coastlines from storm surges. However, stronger storms test the resilience of mangroves, potentially uprooting or destroying them, leaving the coastlines vulnerable to erosion and further damage. Additionally, carbon emissions are linked to ocean acidification, which occurs when excess CO2 is absorbed by the oceans. Acidic waters negatively impact the growth and development of mangroves, as they are sensitive to changes in pH levels. This can lead to reduced productivity, stunted growth, and even death of mangroves, further destabilizing these ecosystems. The stability of mangroves is crucial for both the environment and human populations. Mangroves provide essential habitats for various species, acting as a nursery for fish and supporting biodiversity. They also serve as carbon sinks, absorbing significant amounts of CO2 from the atmosphere. Furthermore, mangroves play a vital role in coastal protection, mitigating erosion, storm surges, and flooding impacts. To mitigate the effects of carbon emissions on mangrove stability, it is crucial to reduce greenhouse gas emissions and limit global warming. This can be achieved by adopting clean energy sources, implementing conservation efforts, and initiating reforestation projects. Equally important is the protection and restoration of mangrove habitats, as this helps maintain their stability and resilience to climate change impacts.

Q: What are the properties of carbon-based textiles?: Carbon-based textiles have a number of unique properties that make them advantageous in various applications. Firstly, carbon-based textiles exhibit exceptional strength and durability. They are known for their high tensile strength, making them resistant to stretching and tearing. This property allows carbon textiles to withstand harsh conditions and maintain their integrity over time. Secondly, carbon-based textiles possess excellent thermal conductivity. They can efficiently conduct heat, making them suitable for applications that require effective heat management. This property is particularly useful in industries such as aerospace, automotive, and electronics, where heat dissipation is essential to prevent system failures. Furthermore, carbon textiles are highly resistant to chemical corrosion. They can withstand exposure to various chemicals, acids, and solvents without losing their structural integrity. This property makes carbon-based textiles ideal for applications in the chemical industry, where exposure to corrosive substances is common. Another notable property of carbon textiles is their inherent flame resistance. They have a high resistance to ignition and do not propagate flames easily. This characteristic makes them suitable for use in environments where fire safety is crucial, such as in protective clothing for firefighters and military personnel. Carbon-based textiles also exhibit good electrical conductivity, making them suitable for applications in electronics and electrical engineering. They can effectively conduct electricity and dissipate static charges, reducing the risk of electrical malfunctions or damage. Lastly, carbon textiles have a low coefficient of thermal expansion, meaning they do not expand or contract significantly with changes in temperature. This property makes them dimensionally stable, ensuring that they maintain their shape and size under varying thermal conditions. In summary, carbon-based textiles possess a combination of strength, durability, thermal conductivity, chemical resistance, flame resistance, electrical conductivity, and dimensional stability. These properties make them highly versatile and suitable for a wide range of applications in various industries.

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: How does carbon affect the formation of ground-level ozone?: Carbon is a key contributor to the formation of ground-level ozone, also known as smog. When carbon-containing pollutants, such as vehicle exhaust and industrial emissions, are released into the atmosphere, they react with sunlight and other pollutants to form ground-level ozone. This reaction occurs more rapidly in the presence of high levels of carbon, leading to increased ozone concentrations.

Q: How does carbon impact the energy balance of the Earth?: Carbon impacts the energy balance of the Earth primarily through its role in the greenhouse effect. Carbon dioxide (CO2), a greenhouse gas, is released into the atmosphere through natural processes and human activities such as burning fossil fuels and deforestation. The greenhouse effect is a natural process where certain gases in the atmosphere trap heat from the sun, preventing it from escaping back into space. This process helps maintain a suitable temperature for life on Earth. However, excessive carbon emissions have enhanced the greenhouse effect, leading to global warming and climate change. When carbon dioxide and other greenhouse gases accumulate in the atmosphere, they trap more heat, causing the Earth's surface temperature to rise. This rise in temperature disrupts the energy balance of the planet. It contributes to the melting of polar ice caps, rising sea levels, and more frequent and severe extreme weather events. Furthermore, carbon affects the energy balance of the Earth by altering the carbon cycle. The carbon cycle is a natural process in which carbon is exchanged between the atmosphere, oceans, and land. However, human activities have significantly disrupted this cycle by releasing large amounts of carbon into the atmosphere, primarily through the burning of fossil fuels. Excessive carbon emissions result in an imbalance in the carbon cycle, as the natural processes that absorb and store carbon, such as photosynthesis and the ocean's ability to absorb CO2, cannot keep up with the pace of emissions. This leads to an accumulation of carbon dioxide in the atmosphere, further exacerbating the greenhouse effect and contributing to global warming. Overall, carbon significantly impacts the energy balance of the Earth by intensifying the greenhouse effect and disrupting the natural carbon cycle. It is crucial to reduce carbon emissions and transition to cleaner and more sustainable energy sources to mitigate the negative effects of carbon on the planet's energy balance and ultimately, preserve the health and stability of our environment.

Q: What is the atomic weight of carbon?: The atomic weight of carbon is approximately 12 atomic mass units.

Q: What is carbon pricing?: Carbon pricing is a market-based strategy aimed at reducing greenhouse gas emissions by putting a price on carbon dioxide and other greenhouse gases. It involves either implementing a tax on carbon emissions or establishing a cap-and-trade system where companies are allotted a certain amount of emissions permits that can be bought and sold. The goal is to create financial incentives for industries to reduce their emissions and transition to cleaner and more sustainable practices.

Q: There are several allotropes of carbon: Allotrope of carbon: diamond, graphite, carbon 60 (fullerene), amorphous carbon (charcoal, coke, activated carbon, etc.)

Q: Today in the market to buy Yuba, instructions have such a word that I don't understand, please master Zhijiao: carbon fiber after energized carbon molecule formation of Brown movement, this movement can be effective in most of the electrical energy into the far infrared.: They are the transition of vibrational levels or rotational levels under conditions of carbon energization. All molecules are doing irregular movements, for example, there is a bond between two molecules, equivalent to a spring connecting two balls connected to two balls, they vibrate, the frequency is v.

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