• Carbon Electrode for Silicon Metal Production System 1
  • Carbon Electrode for Silicon Metal Production System 2
  • Carbon Electrode for Silicon Metal Production System 3
Carbon Electrode for Silicon Metal Production

Carbon Electrode for Silicon Metal Production

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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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Spcifications

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

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. 


Graphite/Carbon Electrode Paste Specification:


PARAMETER   UNIT GUARANTEE VALUE
ItemsΦ500~Φ700Φ750Φ960Φ1020Φ1400
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 
3.57.54.07.53.57.54.07.53.57.54.07.5
Compressive Strength       MPa≥20.0≥20.0≥20.0≥20.0≥19.0≥19.0
Compressive Strength       MPa3.24.83.04.63.24.83.04.63.24.83.04.6
Ash    %≤2.5≤2.0≤2.5≤2.0≤2.5≤2.0


Picture:

Carbon Electrode for Silicon Metal Production

Carbon Electrode for Silicon Metal Production

Carbon Electrode for Silicon Metal Production

Carbon Electrode for Silicon Metal Production

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)



Company information:

 

 

China National Building Materials Group is a stated -owned enterprise in charge of administrative affairs in China buiding materials industry.Established in 1984 CNBM is a large group corporation of building materials with total assets of 25 billion and a total stuff of 30000 CNBM now owns 200 subordinating firms of solely owned and joint-venture companies.


Q:What is carbon fixation?
Carbon fixation is the process by which carbon dioxide (CO2) from the atmosphere is converted into organic compounds by living organisms, mainly plants and algae. It is an essential part of the natural carbon cycle and plays a crucial role in sustaining life on Earth. During photosynthesis, green plants use sunlight, water, and CO2 to produce glucose and oxygen. This glucose serves as a building block for other organic molecules such as carbohydrates, lipids, and proteins. Carbon fixation is not only important for plant growth and development but also for the overall balance of atmospheric CO2 levels. It helps to mitigate the greenhouse effect by removing CO2 from the atmosphere and storing it in biomass or in the soil. Additionally, carbon fixation is a vital source of energy and nutrients for other organisms that consume plants or algae. Overall, carbon fixation is a fundamental process that contributes to the stability and functioning of ecosystems and has significant implications for climate change and the global carbon cycle.
Q:What is the symbol for carbon?
The symbol for carbon is C.
Q:How does carbon affect the formation of blizzards?
Carbon does not directly affect the formation of blizzards. Blizzards are primarily caused by the collision of warm and cold air masses, resulting in heavy snowfall and strong winds. However, carbon emissions and climate change can influence weather patterns, potentially leading to more intense or frequent blizzards in certain regions due to alterations in atmospheric conditions.
Q:How are carbon nanotubes used in various industries?
Carbon nanotubes are used in various industries for their exceptional properties. In electronics, they are utilized for creating smaller and faster transistors and memory devices. In materials science, they enhance the strength and conductivity of composites used in aerospace and automotive sectors. They also find applications in energy storage, where they improve the efficiency of batteries and supercapacitors. Additionally, carbon nanotubes are employed in medicine for drug delivery systems and as biosensors for detecting diseases. Overall, their versatility makes them valuable in multiple industries for enhancing performance and enabling innovative technologies.
Q:How does carbon impact the availability of sustainable agriculture practices?
Carbon impacts the availability of sustainable agriculture practices in several ways. Firstly, carbon emissions from various human activities, such as burning fossil fuels and deforestation, contribute to climate change. This change in climate patterns can lead to extreme weather events like droughts, floods, and heatwaves, which can negatively affect agricultural productivity. Furthermore, excessive carbon in the atmosphere contributes to the greenhouse effect, trapping heat and raising global temperatures. This rise in temperature can disrupt natural ecosystems and reduce the availability of arable land for agriculture. It can also alter precipitation patterns, leading to water scarcity or excessive rainfall, both of which can hinder sustainable agriculture practices. Carbon also plays a role in soil health and fertility. Excessive carbon dioxide in the atmosphere can be absorbed by soils, leading to increased soil acidity. This acidification can lower soil pH levels, making it difficult for crops to absorb essential nutrients. Additionally, high carbon levels can impact soil microorganisms, which are crucial for nutrient cycling and maintaining soil fertility. However, carbon can also have positive impacts on sustainable agriculture practices. Carbon sequestration, the process of capturing and storing carbon dioxide from the atmosphere, can be utilized to enhance soil health. Practices like planting cover crops, adopting agroforestry systems, and implementing no-till farming techniques can help sequester carbon in the soil, improving its fertility and resilience. This, in turn, promotes sustainable agriculture by increasing crop yields, reducing the need for synthetic fertilizers, and enhancing soil water-holding capacity. In conclusion, carbon emissions and their effects on climate change and soil health significantly impact the availability of sustainable agriculture practices. Mitigating carbon emissions and adopting practices that sequester carbon are crucial for ensuring a sustainable and resilient agricultural system in the face of climate change.
Q:What are the effects of carbon emissions on human respiratory health?
Carbon emissions have significant negative effects on human respiratory health. Exposure to high levels of carbon emissions, particularly from sources such as air pollution and vehicle exhaust, can lead to various respiratory issues. These emissions contain harmful pollutants like particulate matter, nitrogen dioxide, and sulfur dioxide, which can irritate the respiratory system and cause or exacerbate conditions such as asthma, bronchitis, and other respiratory diseases. Prolonged exposure to carbon emissions can also increase the risk of respiratory infections, reduce lung function, and contribute to the development of chronic respiratory illnesses. Additionally, carbon emissions contribute to climate change, which can worsen air quality and further impact respiratory health. Therefore, reducing carbon emissions is crucial for protecting and improving human respiratory health.
Q:What is the role of carbon in photosynthesis?
The role of carbon in photosynthesis is to serve as the building block for glucose, the main energy source for plants. Carbon dioxide (CO2) is captured during photosynthesis and converted into glucose through a series of chemical reactions. This process, known as carbon fixation, is essential for plants to produce food and release oxygen into the atmosphere.
Q:How is carbon used in the production of paints and pigments?
Due to its unique properties and versatility, carbon finds wide application in the production of paints and pigments. A primary utilization of carbon is seen in the production of carbon black, which is a fine powder derived from the incomplete combustion of hydrocarbons like coal tar, petroleum, or natural gas. Carbon black proves highly useful as a pigment in various paints, inks, and coatings. The deep shade of carbon black makes it a popular choice for creating intense black pigmentation in paints and pigments. Its exceptional stability and resistance to fading ensure the color remains vibrant over time. Furthermore, carbon black exhibits excellent opacity, effectively covering other colors and providing a solid foundation for further pigmentation. In addition to its role as a pigment, carbon black enhances the durability and performance of paints and coatings. It acts as a reinforcing agent, elevating the mechanical properties of the final product. By increasing strength, toughness, and resistance to abrasion, carbon black ensures the paint or coating is long-lasting and resistant to wear and tear. Moreover, carbon black possesses electrical conductivity, making it a valuable component in specialty coatings, including anti-static coatings and electromagnetic shielding coatings. These coatings are critical in industries such as electronics, automotive, and aerospace, where electrical conductivity or protection against electromagnetic interference is essential. Besides carbon black, other forms of carbon, such as graphite and carbon nanotubes, find application in the production of specialized paints and pigments. Graphite is commonly utilized in high-performance coatings due to its lubricating properties and resistance to extreme temperatures. On the other hand, carbon nanotubes offer unique optical, electrical, and mechanical properties, making them suitable for advanced coatings and pigments in various applications. In conclusion, carbon plays a vital role in the production of paints and pigments by providing intense black pigmentation, enhancing durability, and offering unique properties for specialized coatings. Its versatility as an ingredient ensures the production of high-quality, long-lasting, and visually appealing products in the paint and pigment industry.
Q:What are the consequences of increased carbon emissions on forest ecosystems?
Forest ecosystems experience significant consequences due to the increase in carbon emissions. One of the most notable effects is the modification of climate and weather patterns. The excessive presence of carbon dioxide in the atmosphere results in the retention of heat, leading to global warming. This rise in temperature can disrupt the delicate equilibrium of forest ecosystems. The warmer temperatures can cause shifts in the distribution and composition of tree species, as some may struggle to adapt to the changing conditions. Another outcome of the rise in carbon emissions is the acidification of rainwater. When carbon dioxide combines with water vapor, it creates carbonic acid, which can fall as acid rain. Acid rain has detrimental impacts on forest ecosystems, as it extracts vital nutrients from the soil and damages tree leaves and other vegetation. This weakens the overall health of the forest and makes it more susceptible to diseases and pests. Moreover, increased carbon emissions contribute to the intensification of wildfires. Higher temperatures and drier conditions provide an ideal environment for fires to spread and occur more frequently. Forests that have evolved to withstand natural fire patterns may struggle to cope with the increased intensity and frequency of these fires. This can result in the loss of biodiversity, destruction of habitat, and long-term degradation of forest ecosystems. Lastly, increased carbon emissions contribute to the phenomenon known as ocean acidification, where excess carbon dioxide is absorbed by the oceans. This acidification can impact the well-being of coastal and marine ecosystems, which are intricately connected to forest ecosystems. Many forest ecosystems, such as mangroves and salt marshes, serve as important nursery habitats for marine species. If these forest ecosystems decline due to carbon emissions, it can have cascading effects on the health and productivity of coastal and marine ecosystems. Overall, the increase in carbon emissions has wide-ranging consequences on forest ecosystems. It alters climate patterns, causes acid rain, intensifies wildfires, and affects coastal and marine ecosystems. These impacts not only harm the trees and vegetation within the forests but also disrupt the delicate balance of the entire ecosystem, resulting in the loss of biodiversity and long-term degradation. It is crucial to mitigate carbon emissions and promote sustainable practices to minimize these consequences and preserve the health and integrity of forest ecosystems.
Q:What are the impacts of carbon emissions on the stability of rainforests?
The stability of rainforests is significantly affected by carbon emissions, resulting in negative consequences for both local ecosystems and the global climate. One notable impact is the direct contribution to climate change, as carbon dioxide (CO2) is a major greenhouse gas responsible for trapping heat in the atmosphere. This leads to an enhanced greenhouse effect, causing global temperatures to rise and negatively impact rainforests. As temperatures increase, rainforests face various challenges. Firstly, higher temperatures can result in more frequent and intense droughts, making it difficult for rainforests to maintain moisture levels. This leads to reduced water availability for plants and animals, causing stress, hindered growth, and increased susceptibility to diseases and pests. Additionally, droughts can raise the risk of wildfires, devastating large areas of rainforest and further disrupting the delicate ecosystem. Another significant consequence of carbon emissions is the alteration of rainfall patterns. Climate change disrupts regular rainfall cycles in rainforest regions, leading to either more intense rainfall events or prolonged dry periods. These changes disturb the natural balance within rainforests, affecting the growth and reproduction cycles of plants and animals. For example, certain tree species may struggle to reproduce or regenerate if their seeds require specific conditions that are no longer met due to altered rainfall patterns. Furthermore, carbon emissions contribute to increased concentrations of CO2 in the atmosphere, directly impacting plant physiological processes. While some studies suggest that higher CO2 levels can initially enhance plant growth through increased photosynthesis, the long-term effects are more complex. Elevated CO2 can disrupt the nutrient balance within rainforest ecosystems and may favor certain plant species over others, resulting in shifts in species composition and potentially reducing overall biodiversity. Lastly, the impacts of carbon emissions on rainforests extend beyond the local ecosystem. Rainforests act as crucial carbon sinks, absorbing a significant amount of the world's CO2 emissions. However, as rainforests face increased stress from climate change, their ability to absorb and store carbon may decrease. This creates a dangerous cycle, as reduced carbon storage in rainforests leads to even higher atmospheric CO2 levels, further worsening climate change. In conclusion, carbon emissions have profound effects on the stability of rainforests. From contributing to climate change and altering rainfall patterns to affecting plant physiology and reducing carbon storage capacity, the consequences are extensive and harmful. Protecting rainforests and reducing carbon emissions are crucial steps in preserving the stability and biodiversity of these vital ecosystems.

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