• Iron Alloy Application Carbon Electrode Paste Block System 1
  • Iron Alloy Application Carbon Electrode Paste Block System 2
  • Iron Alloy Application Carbon Electrode Paste Block System 3
Iron Alloy Application Carbon Electrode Paste Block

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


Iron Alloy Application Carbon Electrode Paste Block

Iron Alloy Application Carbon Electrode Paste Block


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Iron Alloy Application Carbon Electrode Paste Block

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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 grasslands?
The stability of grasslands is significantly affected by carbon emissions. When carbon dioxide (CO2) is released into the atmosphere, it contributes to the greenhouse effect and causes global warming. This rise in temperature has various harmful consequences for grasslands. To begin with, higher temperatures can disrupt the equilibrium of grassland ecosystems. Many grassland species require specific temperatures for their growth and reproduction. As temperatures increase, these species may struggle to adapt, resulting in a decline in their populations. This disruption can negatively impact the overall biodiversity and ecological stability of grasslands. Additionally, global warming can change precipitation patterns, leading to alterations in water availability in grasslands. Reduced rainfall or increased evaporation can create drought conditions, making it challenging for grasses to flourish. This can ultimately cause grasslands to transform into barren areas devoid of plant life, a process known as desertification. Moreover, carbon emissions contribute to the acidification of the oceans, which indirectly affects grasslands. Acidic ocean waters impact marine organisms, including those responsible for generating nutrients that are carried by winds to coastal and inland grasslands. If these nutrient sources decline, grasslands may experience reduced fertility and productivity, ultimately affecting the stability of these ecosystems. Lastly, carbon emissions can worsen the frequency and intensity of wildfires. Grasslands are naturally adapted to periodic fires, which play a vital role in maintaining biodiversity and regulating plant populations. However, the increase in carbon dioxide levels can fuel more severe and frequent wildfires, leading to the destruction of grasslands and making their recovery more challenging. In conclusion, carbon emissions have numerous negative impacts on grassland stability. They disrupt the balance of grassland ecosystems, change precipitation patterns, contribute to ocean acidification, and increase the risk of wildfires. These effects can result in biodiversity loss, desertification, reduced fertility, and overall instability in grassland ecosystems. It is essential to reduce carbon emissions and mitigate the consequences of global warming to ensure the long-term stability and preservation of grasslands.
Q:How long will it last? 10National Day would like to do carbon baking ribs at home, how to do, how to marinate? For how long?.. Don't copy sticky posts. Now, tour TV's "eating meat" on earth is recorded in a grilled pork chop, wondering how that is done
Raw material: pork ribsPractice:1, pig ribs cut into several sections of the same size.2, marinate with seasoning, put half a day, can also be the night before pickling, put into the refrigerator.(seasoning: soy sauce, oyster sauce, cooking wine, sugar, geraniol, cinnamon, anise, pepper, garlic, ginger, red pepper)3, put into the microwave oven, high heat for five minutes, in order to make the ribs faster cooked.Pan, covered with foil, preheat the oven to 180 degrees, 180 degrees inside, keep on, under fire, and cook for twenty minutes, during which out of turn two times. (the temperature is too high, will be outside coke is not familiar)5, put the pan bottom oil, add a tablespoon of old godmother flavor stir fermented black bean sauce, and then pickled pork ribs with feed juice poured into, boil, thicken, pour in the ribs. (with some colorful vegetables.)
Q:What are the advantages of carbon-based nanoelectronics?
Carbon-based nanoelectronics have several advantages. Firstly, carbon is an abundant and versatile element, making it cost-effective and readily available for large-scale production. Secondly, carbon-based materials, such as graphene and carbon nanotubes, possess exceptional electrical, thermal, and mechanical properties, enabling high-performance and efficient devices. Additionally, carbon-based nanoelectronics offer excellent flexibility and transparency, allowing for the development of flexible and wearable electronic devices. Lastly, carbon-based materials exhibit excellent stability and biocompatibility, making them suitable for various applications, including biomedical devices and sensors. Overall, these advantages make carbon-based nanoelectronics a promising platform for future advancements in electronics.
Q:What are the different types of carbon-based inks?
A variety of carbon-based inks are commonly utilized in different applications. One category is carbon black ink, produced by burning organic substances like wood or petroleum products in a low-oxygen environment. This ink is renowned for its deep black hue and is frequently employed in printing and calligraphy. Another kind is carbon nanotube ink, created by dispersing carbon nanotubes in a liquid medium. Carbon nanotubes are minuscule cylindrical structures composed of carbon atoms, and their distinctive electronic properties make them valuable in applications such as flexible electronics and energy storage devices. There is also graphene ink, made by dispersing graphene flakes in a liquid medium. Graphene consists of a single layer of carbon atoms arranged in a hexagonal pattern, and it possesses remarkable strength, electrical conductivity, and flexibility. Graphene ink is utilized in various applications, including flexible electronics, sensors, and batteries. Furthermore, conductive carbon-based inks are employed in electronics and circuitry. These inks usually contain a combination of carbon particles and a binding material, and they are used to create conductive pathways on substrates like paper or plastic. Overall, carbon-based inks offer a vast array of possibilities due to the unique properties of carbon materials. They find applications in diverse fields, including printing, calligraphy, electronics, energy storage, and more.
Q:What are carbon offsets?
Carbon offsets are a way to compensate for greenhouse gas emissions by supporting projects that reduce or remove carbon dioxide from the atmosphere, such as reforestation or renewable energy initiatives. They essentially enable individuals or organizations to balance out their carbon footprint by investing in activities that counteract their own emissions.
Q:What are the impacts of carbon emissions on human respiratory diseases?
Carbon emissions, particularly those from burning fossil fuels, have significant impacts on human respiratory diseases. The release of carbon dioxide and other greenhouse gases into the atmosphere contributes to climate change, which in turn affects air quality and worsens respiratory conditions. One of the main consequences of carbon emissions is the increase in air pollution. Fossil fuel combustion releases various pollutants, such as nitrogen oxides, sulfur dioxide, and particulate matter, which can irritate and damage the respiratory system. These pollutants can trigger and exacerbate respiratory diseases such as asthma, bronchitis, and chronic obstructive pulmonary disease (COPD). They can also lead to the development of respiratory infections and reduce lung function, making individuals more susceptible to respiratory illnesses. Climate change, driven by carbon emissions, also worsens respiratory health. Rising temperatures and changing weather patterns contribute to the proliferation of allergens and air pollutants, leading to more frequent and severe allergic reactions and exacerbations of respiratory conditions. Additionally, climate change can extend the pollen season and increase the production of mold spores, triggering asthma attacks and other respiratory symptoms. Furthermore, carbon emissions contribute to the formation of ground-level ozone, a harmful pollutant. Higher temperatures and increased sunlight due to climate change promote the chemical reactions that produce ozone. Ground-level ozone can irritate the airways, causing coughing, shortness of breath, and chest pain. It can also worsen existing respiratory diseases and impair lung function, particularly in vulnerable populations such as children, the elderly, and people with pre-existing respiratory conditions. In summary, carbon emissions have profound impacts on human respiratory diseases. They contribute to air pollution, which aggravates respiratory conditions and increases the risk of respiratory infections. Additionally, climate change, driven by carbon emissions, intensifies the production of allergens and air pollutants, exacerbating respiratory symptoms and reducing lung function. Taking effective measures to reduce carbon emissions is crucial not only for mitigating climate change but also for safeguarding respiratory health.
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 is carbon?
Carbon is a chemical element that is essential for life on Earth. It is found in all living organisms and is the building block for the organic compounds that make up our bodies, such as proteins, carbohydrates, lipids, and nucleic acids. Carbon is also a key component of the Earth's atmosphere, where it exists mainly as carbon dioxide. It is present in various forms, including graphite and diamonds, and has the ability to form strong bonds with other elements, making it incredibly versatile. Carbon plays a crucial role in many natural processes, such as photosynthesis, respiration, and the carbon cycle, which helps regulate the Earth's climate. It is also widely used in industry, serving as a raw material for the production of fuels, plastics, and countless other products. Overall, carbon is a fundamental element that is vital for sustaining life and driving various chemical and biological processes.
Q:What is carbon neutral agriculture?
Carbon neutral agriculture refers to a farming practice that aims to balance the amount of carbon released into the atmosphere with the amount of carbon sequestered or removed from the atmosphere. It involves adopting sustainable and environmentally friendly practices that minimize greenhouse gas emissions and promote the absorption of carbon dioxide from the atmosphere. There are several key practices involved in achieving carbon neutrality in agriculture. One of them is reducing fossil fuel usage by employing renewable energy sources, such as solar or wind power, for farm operations. This helps to decrease emissions associated with machinery, equipment, and transportation. Another important aspect is managing soil health and enhancing carbon sequestration. This can be achieved through practices like cover cropping, crop rotation, and conservation tillage. These methods help to increase organic matter in the soil, which in turn contributes to carbon storage. Additionally, carbon neutral agriculture encourages the use of organic fertilizers and natural pest control methods, reducing the need for synthetic chemicals that can emit harmful greenhouse gases. Offsetting carbon emissions is another strategy employed in carbon neutral agriculture. This can involve planting trees on the farm or in nearby areas to absorb carbon dioxide from the atmosphere. It can also include participating in carbon credit programs, where farmers receive compensation for implementing sustainable practices that reduce emissions. Overall, carbon neutral agriculture is a holistic approach that aims to minimize the carbon footprint of farming operations. By reducing emissions and maximizing carbon sequestration, it helps to mitigate climate change and promote a more sustainable agricultural system.

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