Good Quality Low Ash Carbon Electrode Paste -Ash4

Good Quality Low Ash Carbon Electrode Paste -Ash4

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Loading Port:: Lianyungang

Payment Terms:: TT OR LC

Min Order Qty:: 20 m.t.

Supply Capability:: 2000 m.t./month

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Good Quality Low Ash Carbon Electrode Paste -Ash4

Usage

Electrode paste is used in closed electric smelting furnace as continuous self-baking electrode to produce calcium carbide, ferroalloy and so on. During the furnace operation, electrode paste acts as current conductor.

Product Description

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.

Features

1. Lower ash content;

2. Acurate dosing and stable volatile content;
3. Good electric and thermal conductivity and the sintering speed apropriate to that of consumption of working end;
4. Smelting at lower temperature with certain fluidity and homogeneous composition;
5. High resistance to high temperature, oxidation and thermal shock, low resistivity and high mechanical strength after sintering.

Graphite/Carbon Electrode Paste Specification

parameter unit gurantee value

Ash.( % ) 4.0 max5.0 max 6.0 max 7.0 max 9.0 max11.0 max

V.M （%） 12.0-15.512.0-15.5 12.0-15.5 9.5-13.5 11.5-15.511.5-15.5

Compress Strength. 18.0 min17 min 15.7 min 19.6 min 19.6 min19.6 min

Specific Resistance 65 max68 max 75 max 80 max 90 max90 max

Bulk Density 1.38 min1.38 min1.38 min 1.38 min 1.38 min1.38 min

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Good Quality Low Ash Carbon Electrode Paste -Ash4

Q: What is carbon offsetting in aviation?: The aviation industry utilizes carbon offsetting as a mechanism to counterbalance the carbon emissions it generates. Since airplanes contribute significantly to greenhouse gas emissions, carbon offsetting offers a means for airlines and passengers to acknowledge their carbon footprint and contribute to the battle against climate change. The carbon offsetting process involves calculating the quantity of carbon dioxide and other greenhouse gases released during a flight, and subsequently investing in projects that decrease an equal amount of emissions elsewhere. These projects may encompass initiatives involving renewable energy, forest preservation, or methane capture. The objective is for the emissions reduced or eliminated by these projects to compensate for the emissions produced by the aviation industry. To partake in carbon offsetting, airlines or passengers can acquire carbon offsets, which essentially represent credits equivalent to the reduction or elimination of one metric ton of carbon dioxide or its equivalent. These offsets are generated by certified projects that adhere to stringent standards and undergo independent verification. By investing in carbon offsets, the aviation industry can contribute to global endeavors aimed at reducing greenhouse gas emissions and mitigating the impact of air travel on climate change. It enables airlines and passengers to promptly take action to counteract the environmental repercussions of flying, as the reduction or elimination of emissions from offset projects helps to balance out the emissions generated by air travel. It is crucial to note that carbon offsetting in aviation should not serve as a means to justify or neglect the necessity of long-term solutions to reduce emissions from aircraft. Instead, it should be regarded as a supplementary measure to other strategies, such as investing in more fuel-efficient aircraft, utilizing sustainable aviation fuels, and implementing operational improvements. Nonetheless, carbon offsetting does provide a valuable tool to mitigate emissions in the short term, while the aviation industry endeavors to adopt more sustainable practices.

Q: What are the impacts of carbon emissions on the stability of polar ice caps?: Carbon emissions have significant impacts on the stability of polar ice caps. The primary cause of these emissions is the burning of fossil fuels, which releases large amounts of carbon dioxide into the atmosphere. As a greenhouse gas, carbon dioxide traps heat and contributes to global warming and climate change. This, in turn, leads to the melting of polar ice caps. The ice caps in the polar regions are highly sensitive to changes in temperature. As the Earth's temperature rises due to increased carbon emissions, the polar ice caps experience accelerated melting. This causes a rise in sea levels, which has consequences for coastal regions worldwide. Rising sea levels can lead to increased flooding, erosion, and the loss of valuable coastal ecosystems. Moreover, the stability of polar ice caps is crucial for maintaining the Earth's climate balance. The ice caps reflect sunlight back into space, acting as a natural cooling mechanism for the planet. As they melt, less sunlight is reflected, and more is absorbed by the Earth's surface, exacerbating the warming effect. This creates a feedback loop, where the melting of ice caps leads to further warming, causing even more ice to melt. The impacts of carbon emissions on polar ice caps are not limited to rising sea levels and climate change. The loss of ice also affects the delicate balance of ecosystems in these regions. Polar ice caps provide habitat and a food source for a diverse range of organisms, including polar bears, seals, and various species of birds. The melting of ice disrupts these ecosystems, leading to declines in wildlife populations and potential extinctions. Moreover, the melting of polar ice caps also affects global ocean currents and weather patterns. The cold, dense water that forms from melting ice sinks to the bottom of the ocean and drives important oceanic circulation patterns. Changes in these patterns can have far-reaching consequences, including altering the distribution of marine species, impacting fisheries, and influencing regional climates. To mitigate the impacts of carbon emissions on polar ice caps, it is crucial to reduce greenhouse gas emissions and transition to cleaner and renewable energy sources. International efforts, such as the Paris Agreement, aim to limit global warming and reduce carbon emissions to prevent further ice cap melting. Additionally, supporting research and monitoring programs in polar regions can help us better understand these complex systems and develop effective strategies for their conservation.

Q: We need to make a poster... Of the 27 essential elements of the human body, I am in charge of carbon! I haven't found it for a long time! Who can help me? Urgent!!!!!!Can you find something very specific? Thank you: It can be said that without carbon, there would be no life. Carbon is Dongliangzhicai the world of life.

Q: What are fossil fuels and how are they formed?: Fossil fuels, derived from ancient plants and animals, are natural resources utilized by humans for centuries as non-renewable sources of energy. Coal, oil, and natural gas comprise the three primary types of these fuels. The genesis of fossil fuels commences with organic matter sourced from plants and animals. Over millions of years, this organic material becomes deeply buried within the Earth's crust. Through the accumulation of sediment layers, the organic matter experiences increased pressure and heat, resulting in the process of fossilization. Regarding coal, the organic matter primarily consists of compacted and heated plant material. As the pressure and temperature rise, the plant material undergoes a gradual chemical transformation, eventually becoming coal. The formation of oil and natural gas follows a slightly different path. It originates from the remains of minuscule marine microorganisms, such as plankton, which settle at the ocean floor. Over time, these organic materials become buried beneath sediment layers, where they endure immense heat and pressure. Under these conditions, the organic matter undergoes a conversion into a mixture of hydrocarbons, serving as the primary constituent of oil and natural gas. Subsequently, the oil and gas migrate through porous rocks until they become trapped by impermeable layers, giving rise to oil or gas reservoirs. Overall, the formation of fossil fuels constitutes a gradual geologic process taking millions of years. It necessitates specific conditions of heat, pressure, and burial to convert organic matter into coal, oil, or natural gas. Due to their limited availability and the environmental consequences associated with their combustion, there is an increasing emphasis on transitioning towards renewable energy sources as a more sustainable alternative.

Q: Why carbon fiber resistant to low temperature: Resistance to 180 DEG C carbon fiber can be low temperature, under this condition, many materials are brittle, even sturdy steel has become fragile than glass, and carbon fiber under this condition is still very soft. Therefore, the carbon fiber composite core can be used in the design and manufacture of transmission carriers under extremely cold conditions, such as Antarctic research and research.

Q: How does carbon affect the formation of wildfires?: Carbon does not directly affect the formation of wildfires, but it plays a crucial role in their severity and intensity. Carbon-rich vegetation, such as dry grasses and dead trees, acts as fuel for wildfires, enabling them to spread rapidly and intensify. When these fuels ignite, they release carbon dioxide, a greenhouse gas that contributes to climate change. Additionally, the combustion of carbon-rich materials during wildfires releases large amounts of carbon into the atmosphere, further exacerbating global warming.

Q: How do humans contribute to carbon emissions?: Humans contribute to carbon emissions through various activities, such as burning fossil fuels for electricity, transportation, and heating; deforestation and land-use changes; industrial processes; and the production and disposal of waste. These actions release significant amounts of carbon dioxide and other greenhouse gases into the atmosphere, exacerbating the greenhouse effect and contributing to climate change.

Q: How does carbon dioxide affect the formation of smog?: Carbon dioxide (CO2) does not directly contribute to the formation of smog. Smog is primarily formed by the interaction of sunlight with other pollutants such as nitrogen oxides (NOx) and volatile organic compounds (VOCs). These pollutants are emitted from various sources including vehicles, industrial processes, and power plants. However, while carbon dioxide does not directly participate in smog formation, it does play a significant role in contributing to climate change. CO2 is a greenhouse gas, meaning it traps heat in the Earth's atmosphere and contributes to the warming of the planet. As the Earth warms, it can lead to changes in weather patterns, resulting in more stagnant air conditions that can exacerbate smog formation. Additionally, the burning of fossil fuels, which releases carbon dioxide, is a major source of air pollutants like NOx and VOCs. So while CO2 itself may not directly contribute to smog formation, the activities that release CO2 can indirectly contribute to smog by releasing other pollutants that are involved in its formation. Therefore, the impact of carbon dioxide on smog formation is indirect, primarily through its contribution to climate change and the release of other pollutants. Reducing carbon dioxide emissions and transitioning to cleaner energy sources can help mitigate climate change and indirectly reduce the factors that contribute to smog formation.

Q: What are the main sources of carbon emissions?: Human activities, particularly the burning of fossil fuels like coal, oil, and natural gas, are primarily attributed as the main sources of carbon emissions. When these fossil fuels are combusted for electricity generation, transportation, and industrial processes, significant amounts of carbon dioxide (CO2) are released into the atmosphere. Deforestation and land-use changes also play a major role in carbon emissions. Clearing or burning forests leads to the release of carbon stored in trees and vegetation as CO2, contributing to greenhouse gas emissions. Moreover, the decrease in forests reduces their ability to absorb carbon dioxide through photosynthesis, worsening the issue. Substantial carbon emissions are also generated by industrial processes such as cement production and chemical manufacturing. Cement production, in particular, produces a significant amount of CO2 due to the chemical reactions involved. Agriculture is another significant source of carbon emissions, primarily through the release of methane (CH4) and nitrous oxide (N2O). Livestock farming, especially cattle, produces methane through enteric fermentation and manure management. Nitrous oxide is released from the use of synthetic fertilizers and manure in agricultural practices. Lastly, waste management and disposal contribute to carbon emissions. Landfills, where organic waste decomposes, release methane gas. Additionally, the incineration of waste also releases CO2 and other greenhouse gases into the atmosphere. To reduce carbon emissions, it is vital to address these primary sources. This can be achieved through transitioning to cleaner energy sources, promoting sustainable land-use practices, improving industrial processes, adopting more sustainable agricultural practices, and implementing effective waste management strategies.

Q: What are the consequences of increased carbon emissions on global trade?: Increased carbon emissions have significant consequences on global trade. One of the most immediate impacts is the potential for stricter environmental regulations and carbon pricing mechanisms imposed by countries and international agreements. This can lead to higher costs for industries and businesses that rely heavily on carbon-intensive activities, such as manufacturing and transportation. As a result, companies may face increased production costs, which can be passed on to consumers in the form of higher prices for goods and services. This can have a negative effect on global trade, as higher costs may reduce demand and hinder international competitiveness. Additionally, industries that do not comply with environmental regulations or carbon reduction targets may face trade barriers or sanctions, further limiting their ability to participate in global trade. Another consequence of increased carbon emissions is the potential for climate change-related disruptions to supply chains. Rising temperatures, extreme weather events, and sea-level rise can damage infrastructure, disrupt transportation routes, and affect the availability and quality of resources. This can lead to delays in production and shipping, increased transportation costs, and a higher risk of supply chain interruptions. These disruptions can have far-reaching impacts on global trade, affecting the flow of goods, services, and investments across borders. Furthermore, increased carbon emissions contribute to global warming, which can have long-term consequences for agricultural productivity and food security. Changes in temperature and precipitation patterns can lead to crop failures, reduced yields, and shifts in agricultural production regions. This can disrupt global food supply chains and lead to price volatility, affecting trade flows and potentially exacerbating food shortages and inequalities. In summary, increased carbon emissions have several consequences on global trade. Stricter environmental regulations and carbon pricing can increase costs for industries, potentially reducing their competitiveness. Climate change-related disruptions to supply chains can lead to delays, increased costs, and interruptions in trade. Lastly, the impact of global warming on agricultural productivity can have significant implications for food security and trade in agricultural commodities.

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