Carbon Electrode With Φ750～Φ960 S Grade System 1

Carbon Electrode With Φ750～Φ960 S Grade

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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 Φ750～Φ960 S Grade

Graphite/Carbon Electrode Paste Specification

PARAMETER UNIT GUARANTEE VALUE
Items	Φ500～Φ700	Φ500～Φ700	Φ750～Φ960	Φ750～Φ960	Φ1020～Φ1400	Φ750～Φ960
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

Features

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.

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Carbon Electrode With Φ750～Φ960 S Grade

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: How does deforestation contribute to carbon dioxide levels in the atmosphere?: Deforestation plays a significant role in contributing to increased carbon dioxide levels in the atmosphere. Trees act as natural carbon sinks, absorbing carbon dioxide during photosynthesis and storing it in their trunks, branches, and leaves. When forests are cleared or burned down for various purposes such as agriculture, logging, or urbanization, the stored carbon is released back into the atmosphere as carbon dioxide. The removal of trees directly leads to a reduction in the planet's capacity to absorb carbon dioxide, resulting in an imbalance in the carbon cycle. Additionally, deforestation disrupts the carbon cycle by inhibiting the process of photosynthesis, which is essential for converting carbon dioxide into oxygen and organic compounds. Moreover, deforestation indirectly contributes to increased carbon dioxide levels in the atmosphere through the decomposition of organic matter. When trees are cut down or burned, the stored carbon they contain is released into the atmosphere as carbon dioxide, intensifying greenhouse gas emissions. Furthermore, deforestation also impacts the water cycle, leading to drier conditions in the affected areas. This dries out the soil, making it less suitable for plant growth and reducing the potential for carbon absorption through reforestation efforts. The cumulative effect of deforestation on carbon dioxide levels is significant. According to studies, deforestation accounts for approximately 10-15% of global carbon emissions, making it one of the leading contributors to climate change. The increase in atmospheric carbon dioxide levels, along with other greenhouse gases, contributes to the greenhouse effect, trapping heat in the atmosphere and causing global warming. Addressing deforestation is crucial in mitigating climate change and reducing carbon dioxide levels. Implementing sustainable forestry practices, promoting reforestation efforts, and protecting existing forests are essential steps in preserving carbon sinks and reducing greenhouse gas emissions.

Q: How is carbon used in the manufacturing of electronics?: The manufacturing of electronics relies on carbon in various ways. One of its primary uses is in the production of carbon nanotubes, which are essential in electronics. These nanotubes possess exceptional electrical conductivity and mechanical strength, making them ideal for various electronic devices. For example, they can be utilized to create high-performance transistors that are crucial components in computer chips. Furthermore, carbon is utilized in the manufacturing of batteries for electronic devices. Graphite, a carbon-based material, is commonly used as the anode material in lithium-ion batteries. This is due to its efficient storage and release of lithium ions, enabling the rechargeable nature of these batteries. Moreover, carbon is employed in the production of conductive coatings and inks used in printed circuit boards (PCBs). Carbon-based materials, such as carbon black or carbon nanotubes, are added to enhance the electrical conductivity of these coatings and inks. Consequently, the flow of electrical signals throughout the circuitry of electronic devices is ensured. In conclusion, carbon plays a crucial role in the manufacturing of electronics. It is utilized in the production of carbon nanotubes for high-performance transistors, serves as anode material in lithium-ion batteries, and enhances the electrical conductivity of conductive coatings and inks for printed circuit boards. These applications emphasize the versatility and significance of carbon in the electronics industry.

Q: What is carbon black pigment?: Carbon black pigment is a finely divided form of carbon that is primarily used as a coloring agent in various applications. It is produced by the incomplete combustion or thermal decomposition of hydrocarbons, such as coal tar, petroleum, or natural gas. The resulting carbon black particles are extremely small and have a high surface area, which gives them unique properties. Carbon black pigment is known for its intense black color, high tinting strength, and excellent UV stability. It is widely used in the production of inks, paints, coatings, plastics, rubber, and various other materials. The pigment particles disperse well in these mediums, providing a deep and uniform black coloration. In addition to its coloring capabilities, carbon black pigment also offers several other desirable properties. It enhances the durability, weather resistance, and electrical conductivity of materials. It can also improve the UV resistance and absorption properties of coatings and plastics, making them more resistant to fading and degradation caused by sunlight exposure. Moreover, carbon black pigment is chemically inert and does not react with other substances. This makes it suitable for use in a wide range of applications without causing any undesired chemical reactions. It is also non-toxic and has a low environmental impact, making it a preferred choice for many industries. Overall, carbon black pigment is a versatile and widely used additive that provides deep black coloration, durability, and enhanced performance to a variety of materials. Its unique properties make it an essential component in numerous industries, contributing to the production of high-quality products.

Q: What is carbon offsetting in the automotive industry?: Carbon offsetting in the automotive industry refers to the practice of compensating for the greenhouse gas emissions produced by vehicles. It involves investing in projects that reduce or remove carbon dioxide from the atmosphere, such as renewable energy projects, reforestation initiatives, or methane capture projects. By offsetting their emissions, automakers and individuals aim to neutralize or balance out the environmental impact of driving vehicles.

Q: How is carbon used in the agricultural industry?: Carbon is widely used in the agricultural industry for various purposes. One of the main uses of carbon in agriculture is as a soil amendment. Adding carbon-rich organic matter, such as compost or manure, to the soil improves its structure, fertility, and overall health. This is because carbon helps to increase the soil's ability to retain moisture, nutrients, and beneficial microorganisms, which are essential for plant growth. In addition to soil amendment, carbon is also used in the form of carbon dioxide (CO2) for greenhouse enrichment. In controlled environments like greenhouses, plants require a higher concentration of CO2 to enhance their growth and productivity. Carbon dioxide is released into the greenhouse to maintain optimal levels, which promotes photosynthesis and accelerates plant growth. Moreover, carbon-based fertilizers are commonly used in agriculture. These fertilizers, such as urea or ammonium nitrate, provide essential nutrients to crops and enhance their productivity. Carbon is an integral component of these fertilizers, aiding in the controlled release of nutrients and their effective uptake by plants. Furthermore, carbon is utilized in the production of pesticides and herbicides. Many of these agricultural chemicals contain carbon compounds that are specifically designed to target and control pests, diseases, and weeds that can harm crops. Carbon-based chemicals are often used because of their effectiveness and ability to break down naturally without causing long-term harm to the environment. Overall, carbon plays a crucial role in the agricultural industry by improving soil fertility, enhancing plant growth, and aiding in pest control. Its versatile applications make it an essential resource for sustainable and efficient farming practices.

Q: What are the effects of carbon emissions on the stability of wetlands?: Carbon emissions have significant effects on the stability of wetlands. One of the main consequences is the alteration of the hydrological cycle, which can disrupt the delicate balance of water levels in wetland ecosystems. Increased carbon emissions contribute to climate change and global warming, leading to higher temperatures and altered precipitation patterns. These changes can result in more frequent and intense droughts, floods, and storms, which can negatively impact the stability of wetlands. Elevated carbon dioxide levels also affect the vegetation in wetlands. Excess carbon dioxide can stimulate the growth of certain plant species, leading to an imbalance in the wetland ecosystem. This can result in the dominance of invasive species, which outcompete native plants and disrupt the natural biodiversity of the wetland. In turn, this can impact the stability of the wetland as it relies on a diverse range of plant species to support the intricate web of life within it. Furthermore, carbon emissions contribute to the acidification of water bodies, including wetlands. Increased carbon dioxide dissolves in water, forming carbonic acid, which lowers the pH of the water. Acidic conditions can be detrimental to the survival of many wetland species, including plants, amphibians, fish, and invertebrates. The acidification of water can also lead to the leaching of toxic metals and other pollutants from surrounding soils, further compromising the stability and health of wetland ecosystems. Lastly, carbon emissions contribute to the rise of sea levels due to the melting of polar ice caps and thermal expansion of ocean waters. This poses a significant threat to coastal wetlands, which are particularly vulnerable to sea-level rise. As sea levels increase, saltwater intrusion can occur, leading to the degradation and loss of freshwater wetlands. This can result in the displacement or extinction of numerous plant and animal species that rely on these ecosystems, ultimately destabilizing the wetland. In conclusion, carbon emissions have profound effects on the stability of wetlands. From altering the hydrological cycle and vegetation composition to causing acidification and sea-level rise, these emissions pose a significant threat to the health and integrity of wetland ecosystems. It is crucial to mitigate carbon emissions and take measures to protect and restore wetlands to ensure their stability and preserve the invaluable services they provide.

Q: What are the consequences of increased carbon emissions on cultural heritage sites?: Increased carbon emissions can have significant consequences on cultural heritage sites. One of the most immediate and visible impacts is the deterioration of physical structures and artifacts. Carbon emissions contribute to air pollution, which can result in the formation of acid rain. Acid rain contains high levels of sulfuric and nitric acids that can corrode and erode materials such as stone, metal, and paint. This can lead to the degradation and discoloration of historic buildings, monuments, and sculptures. Furthermore, carbon emissions contribute to climate change, resulting in more frequent and severe weather events such as hurricanes, floods, and wildfires. These extreme weather events pose a direct threat to cultural heritage sites, causing physical damage and destruction. For example, rising sea levels due to climate change can lead to the erosion of coastal archaeological sites, causing the loss of valuable historical artifacts and structures. In addition to the physical impacts, increased carbon emissions also pose a threat to the intangible aspects of cultural heritage. Climate change disrupts ecosystems and biodiversity, affecting the natural surroundings of cultural sites. This can lead to the loss of traditional knowledge, practices, and cultural landscapes that are closely linked to the heritage sites. Indigenous communities, for instance, may lose their ancestral lands and sacred sites due to changing environmental conditions. Moreover, cultural heritage sites often rely on tourism as a source of income and conservation funding. However, increased carbon emissions contribute to global warming, which in turn can lead to changes in travel patterns and preferences. This can result in a decline in tourist visits to cultural heritage sites, impacting local economies and hindering conservation efforts. Overall, the consequences of increased carbon emissions on cultural heritage sites are multi-faceted and wide-ranging. It is crucial to address and mitigate these emissions through sustainable practices and policies to protect and preserve our shared cultural heritage for future generations.

Q: Does iron have more carbon or more steel?: Iron has a high carbon contentThe main difference is that the pig iron, wrought iron and steel carbon content, carbon content of more than 2% of iron is iron;

Q: Is the hardness or softness of the steel with higher carbon content?: With the increase of carbon content, the strength and hardness of steel increase, while the plasticity and toughness decrease. When the carbon content is more than 1%, the strength of steel decreases.

Q: What is carbon sequestration?: The process of carbon sequestration involves capturing carbon dioxide (CO2) from the atmosphere and storing it for a long time, preventing its release and its contribution to climate change. The objective is to decrease the concentration of CO2 in the atmosphere, as this gas is a major cause of global warming. Carbon sequestration can happen naturally through biological processes like photosynthesis in plants and algae, or it can be done through various artificial methods. When plants, trees, and other vegetation absorb CO2 during photosynthesis and store it in their tissues, it is known as natural carbon sequestration. This is crucial in reducing CO2 levels in the atmosphere. Additionally, oceans also play a significant role in absorbing and storing large amounts of CO2, known as oceanic sequestration. Artificial carbon sequestration techniques involve capturing CO2 emissions from industrial processes, power plants, and other sources before they are released into the atmosphere. There are different methods for carbon capture, including capturing before combustion, after combustion, and through oxy-fuel combustion. Once the CO2 is captured, it can be transported and stored underground in geological formations like depleted oil and gas fields or saline aquifers. This process is commonly referred to as carbon capture and storage (CCS) or carbon capture utilization and storage (CCUS). Carbon sequestration has gained significant attention because of its potential to address climate change. By reducing the amount of CO2 in the atmosphere, it helps slow down global warming and mitigate the impacts of climate change. It is considered an essential part of the broader strategy to achieve net-zero emissions, as it not only reduces future emissions but also removes CO2 that has already been emitted. However, carbon sequestration is not a complete solution to climate change. It should be seen as a complementary approach to other mitigation efforts, such as transitioning to renewable energy sources and improving energy efficiency. Additionally, the long-term storage of CO2 requires careful monitoring and management to ensure its effectiveness and prevent any leakage or environmental risks. In conclusion, carbon sequestration is a crucial tool in the fight against climate change, offering the potential to reduce greenhouse gas emissions and contribute to a more sustainable future.

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