Good Quality Injection Carbon With FC 80-95%

Good Quality Injection Carbon With FC 80-95%

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 20 m.t.

Supply Capability:: 3000 m.t./month

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Good Quality Injection Carbon With FC 80-95%

Features of caclined anthracite

1. strong supply capability

2. fast transportation

3. lower and reasonable price for your reference

4.low sulphur, low ash

5.fixed carbon:95% -90%

6..sulphur:lower than 0.3%

Package

In 25KG bags or in MT bags

Product Description

Cardon additives made from well-selected Tai Xi anthracite .Mainly used in steelmaking
in electrical stove, screening water,quality,shipbuilding sandblast removing rust producingcarbon materials.Mainly industry property of it is : instead of traditional pertroleum coal of Carbon Additives,reduce the cost of steelmaking.

Specification

parameter unit gurantee value

F.C.% 95MIN 94MIN 93MIN 92MIN 90MIN

ASH % 4MAX 5MAX6 MAX6.5MAX8.5MAX

V.M.% 1 MAX 1MAX1.0MAX1.5MAX 1.5MAX

SULFUR % 0.3MAX0.3MAX0.3MAX0.35MAX0.35MAX

MOISTURE %0.5MAX0.5MAX0.5MAX0.5MAX0.5MAX

Good Quality Injection Carbon With FC 80-95%

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:Intend to go to the barbecue and 35 friends over the weekend, but because it is new, so I don't know how to put the carbon burning, found some web sites are also a few pens, see me confused......Hope which experienced friend to help enlighten me, the best to the specific point, thank you ah!: A few days ago I just go to the barbecue, barbecue in the general store to buy carbon (long, with a hole in the middle of smokeless carbon) is not easy, but is cheaper, you can buy some flammable carbon on the Internet, and then get a little pure alcohol ignition when the flammable carbon below, ordinary carbon. Add a little alcohol, a little on the. It takes about 20 minutes to barbecue! Wish you have a good time.

Q:Does alumina react with carbon?: NotThe smelting of Al in industry can only be done by electrolysis. Even at high temperatures, the reducibility of C is not as strong as Al, and the melting point of Al2O3 is very high. At this temperature, C has been gasified

Q:How does carbon impact the productivity of marine ecosystems?: Marine ecosystems are greatly affected by carbon, impacting their productivity in various ways. One significant effect is seen through ocean acidification. When human activities release carbon dioxide into the atmosphere, a considerable portion is absorbed by the oceans. This excess carbon dioxide reacts with seawater, producing carbonic acid and causing a decrease in the ocean's pH. This rise in acidity has harmful consequences for numerous marine organisms, particularly those relying on calcium carbonate for their shells or skeletons, such as corals, shellfish, and certain plankton species. Ocean acidification hinders calcification, making it challenging for these organisms to develop and maintain their protective structures. This not only affects their survival but also has repercussions for the entire food chain. Many species depend on these calcium carbonate structures for food or shelter, so a decline in their productivity can have a cascading impact on the ecosystem. Moreover, heightened carbon dioxide levels in the ocean can also disrupt the metabolism and physiology of marine organisms. Some studies indicate that increased CO2 concentrations can impede the growth, development, and reproductive success of specific species. Consequently, overall productivity within the ecosystem decreases. Furthermore, marine ecosystems are also affected by climate change, which is fueled by the accumulation of carbon dioxide in the atmosphere. Rising temperatures disrupt the delicate balance of these ecosystems, altering the distribution and abundance of species, changing predator-prey dynamics, and causing shifts in the timing of crucial ecological events like spawning or migration. These changes have profound effects on the productivity of marine ecosystems, as different species struggle to adapt or compete under new conditions. In conclusion, carbon dioxide emissions have far-reaching consequences for marine ecosystems. Ocean acidification and climate change, both driven by excessive carbon dioxide, harm the productivity of marine ecosystems by impacting the growth, survival, and reproductive success of marine organisms. The effects of carbon on marine ecosystems underscore the urgent necessity to reduce greenhouse gas emissions and mitigate the impacts of climate change in order to protect these delicate and essential ecosystems.

Q:Can carbon be recycled?: Indeed, carbon has the potential to undergo recycling. Carbon recycling pertains to the process of capturing and reutilizing carbon dioxide (CO2) emissions rather than releasing them into the atmosphere. There exist various approaches to carbon recycling, which include: 1. Carbon capture and storage (CCS): This procedure entails the capture of CO2 emissions from power plants or industrial facilities, followed by their storage underground or in deep ocean formations. CCS aids in preventing the release of CO2 into the atmosphere, thereby reducing its impact on climate change. 2. Carbon capture and utilization (CCU): CCU involves capturing CO2 emissions and transforming them into valuable products. For instance, CO2 can be converted into fuels, chemicals, or construction materials through a range of chemical and biological processes. 3. Enhanced oil recovery (EOR): This technique encompasses the injection of captured CO2 into oil reservoirs to enhance the quantity of recoverable oil. In addition to recycling carbon, it also boosts oil production. 4. Biological carbon sequestration: This method employs plants, trees, and other biological organisms to absorb CO2 from the atmosphere through photosynthesis. By promoting reforestation, afforestation, and sustainable land management practices, we can augment carbon sequestration and offset emissions. While carbon recycling technologies are still under development and refinement, they present promising solutions for mitigating greenhouse gas emissions and addressing climate change. By recycling carbon, we can diminish our dependence on fossil fuels, minimize the release of CO2 into the atmosphere, and strive towards a more sustainable and low-carbon future.

Q:How can carbon capture and storage help reduce greenhouse gas emissions?: CCS has the potential to make a significant contribution in the fight against greenhouse gas emissions. Its core process involves capturing carbon dioxide emitted from industrial activities or power generation, transporting it, and then underground storage in geological formations. To begin with, CCS can effectively reduce greenhouse gas emissions by capturing CO2 directly from major sources like power plants and industrial facilities. Without CCS, these sources would release CO2 into the atmosphere, exacerbating the greenhouse effect and further contributing to climate change. By capturing and storing this CO2, the negative impact on climate change is mitigated. Additionally, CCS allows for the continued use of fossil fuels, such as coal or natural gas, in a more environmentally friendly manner. These fuels are currently the main sources of energy for electricity generation and industrial processes. By implementing CCS, the emissions of CO2 from these fossil fuel activities can be significantly reduced, facilitating a gradual and economically feasible transition to cleaner energy sources. Moreover, the combination of CCS with bioenergy production creates a process known as BECCS. This involves using biomass, like crop residues or energy crops, to produce energy. The CO2 emitted during this bioenergy production is captured and stored, resulting in a net-negative emissions process. BECCS effectively removes CO2 from the atmosphere, offsetting emissions from other sectors. Lastly, CCS can play a crucial role in the decarbonization of hard-to-abate sectors, such as cement and steel production, where low-carbon alternatives are currently limited. By capturing and storing CO2 emissions from these sectors, CCS significantly reduces their overall greenhouse gas emissions and supports their transition towards more sustainable practices. In conclusion, the implementation of carbon capture and storage technology is essential in reducing greenhouse gas emissions. It directly captures and stores CO2 from major sources, allows for the sustainable use of fossil fuels, enables negative emissions through BECCS, and aids the decarbonization of challenging sectors. By incorporating CCS alongside other mitigation strategies, global climate goals can be achieved, and the battle against climate change can be fought effectively.

Q:What is the relationship between carbon emissions and air pollution?: Carbon emissions and air pollution are closely interconnected. Carbon emissions, which mainly come from burning fossil fuels such as coal, oil, and natural gas, release large amounts of carbon dioxide (CO2) into the atmosphere. This increase in CO2 levels contributes significantly to the greenhouse effect, trapping heat in the atmosphere and leading to global warming. Air pollution, on the other hand, refers to the presence of harmful substances in the air that can be detrimental to human health and the environment. While carbon dioxide itself is not directly toxic to humans, it plays a crucial role in the formation of other air pollutants. One of the primary consequences of increased carbon emissions is the production of fine particulate matter (PM2.5) and ground-level ozone (O3). These pollutants are created through complex chemical reactions involving CO2 and other pollutants like nitrogen oxides (NOx) and volatile organic compounds (VOCs). PM2.5 and O3 are known to cause respiratory problems, cardiovascular diseases, and other health issues. Furthermore, carbon emissions also contribute to the formation of other air pollutants such as sulfur dioxide (SO2), nitrogen oxides (NOx), and heavy metals. These pollutants are emitted alongside CO2 from various industrial processes, power generation, and transportation. They can have severe health impacts, including respiratory diseases, asthma, and even cancer. Reducing carbon emissions is crucial to combatting air pollution. By transitioning to cleaner energy sources like renewables and improving energy efficiency, we can significantly reduce the amount of CO2 and other pollutants emitted into the atmosphere. Implementing stricter regulations and adopting cleaner technologies in industries and transportation can also help reduce air pollution and its associated health risks. In conclusion, carbon emissions and air pollution are intrinsically linked. The release of CO2 and other pollutants from burning fossil fuels contributes to global warming and the formation of harmful air pollutants. Addressing the problem of carbon emissions is essential to mitigate air pollution and protect human health and the environment.

Q:How does carbon affect the formation of avalanches?: The formation of avalanches is not directly affected by carbon. Rather, factors such as snowpack stability, slope angle, and weather conditions primarily contribute to their occurrence. Nevertheless, avalanche formation can be indirectly influenced by carbon emissions and climate change, which impact snowpack stability. Increased levels of carbon dioxide in the atmosphere contribute to global warming, consequently affecting the overall climate. This warming leads to changes in precipitation patterns, snowfall amounts, and snowpack characteristics. Higher temperatures can cause rain instead of snow, resulting in a less stable snowpack. Climate change, in addition to altered precipitation patterns, can cause the melting and refreezing of snow. This process creates weak layers within the snowpack. When combined with subsequent snowfall and wind, these weak layers can lead to unstable snowpacks that are prone to avalanches. Moreover, carbon emissions contribute to the overall warming of the planet, which in turn can lead to the retreat of glaciers. Glaciers act as natural barriers and stabilizers in mountainous regions, reducing the likelihood of avalanches. However, as glaciers shrink, they leave behind unstable slopes, thereby increasing the potential for avalanches. It is important to emphasize that while carbon emissions and climate change indirectly influence avalanche formation, they are not the primary or sole cause. Local weather conditions, slope angles, and snowpack stability assessments conducted by avalanche experts play a more immediate role in determining the likelihood of avalanches.

Q:How does carbon affect the properties of steel?: Carbon affects the properties of steel by increasing its hardness, strength, and overall durability. The presence of carbon allows for the formation of iron carbides, which strengthen the steel's crystal lattice structure. The higher the carbon content, the harder and stronger the steel becomes. However, excessive carbon can make the steel brittle, reducing its impact resistance.

Q:Glucose contains resveratrol (C14H12O3) to determine the mass ratio of resveratrol and carbon dioxide of the same quality as carbon dioxide: They are x and y, containing carbon equal, according to the mass of an element = the mass of a compound * the elementMass fractionFor C14H12O3, the carbon mass fraction is C%=12*14/ (12*14+12+16*3) *100%=73.68%For CO2, the mass fraction of carbon is 12/ (12+16*2) =27.27%There is x *73.68%=y*27.27%So there's X: y =57:154

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