• Graphite Electrode Scrap high-purity as carbon additive and carburant System 1
  • Graphite Electrode Scrap high-purity as carbon additive and carburant System 2
  • Graphite Electrode Scrap high-purity as carbon additive and carburant System 3
Graphite Electrode Scrap high-purity as carbon additive and carburant

Graphite Electrode Scrap high-purity as carbon additive and carburant

Ref Price:
get latest price
Loading Port:
Qingdao
Payment Terms:
TT OR LC
Min Order Qty:
10 m.t
Supply Capability:
5000000 m.t/month

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Specifications:

F.C 98%min and 98.5%min, size: 100mm up 

- Description & Application

Electrode block processing of carburant in steelmaking and casting, than ordinary recarburizer absorption rate is high, easy to melt, can efficiently improve the quality of products and reduce the cost.

- Technical Specification
 

F.C (min)


  98.5%

98%

S (max)


  0.05%

0.05%

ASH (max)


  0.80%

1.00%

Vm (max)


  0.70%

1.00%

H2O (max)


  0.50%

0.50%

SIZE


  100mm up

 

Q:What is carbon neutral manufacturing?
Carbon neutral manufacturing refers to the practice of minimizing and offsetting greenhouse gas emissions produced during the manufacturing process. It involves implementing sustainable measures, using renewable energy sources, and investing in carbon offset projects to balance out the emissions released. This approach aims to achieve a net-zero carbon footprint, where the amount of carbon dioxide emitted is equal to the amount removed from the atmosphere, thus mitigating climate change impacts associated with manufacturing activities.
Q:How is activated carbon produced?
Activated carbon is produced through a process called activation, which involves heating carbon-rich materials, such as wood, coal, or coconut shells, at high temperatures in the absence of oxygen. There are two main methods of activation: physical activation and chemical activation. In physical activation, the carbon-rich material is first carbonized by heating it to a high temperature. This creates a carbonized char with a high carbon content. The char is then treated with an oxidizing gas, such as steam or carbon dioxide, at temperatures between 600 to 900 degrees Celsius. This causes the char to expand and develop a highly porous structure. The resulting material is then washed and dried to remove any impurities, resulting in activated carbon. Chemical activation, on the other hand, involves impregnating the carbon-rich material with a chemical activating agent, such as phosphoric acid, zinc chloride, or potassium hydroxide. The impregnated material is then heated to temperatures ranging from 400 to 800 degrees Celsius. This process chemically reacts with the carbon, creating a highly porous structure. The activated carbon is then washed and dried to remove any residual chemicals. Both physical and chemical activation methods result in the production of activated carbon with a large surface area and a network of pores. These pores enhance the adsorption capacity of the activated carbon, allowing it to effectively trap and remove impurities, contaminants, and pollutants from gases and liquids.
Q:What are the different methods of measuring carbon dioxide levels in the atmosphere?
There exist various techniques for assessing carbon dioxide levels in the atmosphere. These techniques encompass direct measurement, remote sensing, and ice core analysis. Direct measurement stands as the most precise and extensively employed approach. It encompasses collecting air samples from numerous locations worldwide and analyzing them using gas analyzers. These analyzers possess the capability to gauge the concentration of carbon dioxide in the air, typically expressed in parts per million (ppm). Remote sensing represents an alternative method for measuring carbon dioxide levels. It involves the utilization of satellite-based instruments to observe and quantify the quantity of carbon dioxide present in the Earth's atmosphere. These instruments can detect the absorption and scattering of sunlight caused by carbon dioxide molecules, thereby rendering valuable data concerning its concentration. Ice core analysis constitutes a historical technique for assessing carbon dioxide levels. Scientists delve deep into polar ice sheets and procure ice cores. These ice cores harbor trapped air bubbles from hundreds or even thousands of years ago. By analyzing the carbon dioxide content within these bubbles, scientists can recreate past atmospheric carbon dioxide levels and juxtapose them with contemporary levels. Each of these methods possesses its own merits and limitations. Direct measurement furnishes real-time data and precise measurements, albeit necessitating an extensive network of monitoring stations worldwide. Remote sensing offers a global perspective and the ability to cover large areas, yet it may struggle to resolve fine-scale spatial variations. Ice core analysis delivers valuable long-term historical data, but its applicability is confined to specific regions and solely permits indirect measurements. The amalgamation of these techniques empowers scientists to obtain a comprehensive comprehension of carbon dioxide levels in the atmosphere, aiding in the monitoring and evaluation of the impact of human activities on climate change.
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:Today in the market to buy Yuba, instructions have such a word that I don't understand, please master Zhijiao: carbon fiber after energized carbon molecule formation of Brown movement, this movement can be effective in most of the electrical energy into the far infrared.
Far infrared is produced by vibrational energy level transitions, and its wave number is 400-5000/cm., so carbon and silicon rods are often used as infrared light sources in Analytical Chemistry
Q:But their chemical symbols are different, so they are different elements, different substances, but they feel the same thing... Tangled up ~!
One kind is metal, one kind is nonmetal, the property is not lively, the property is stable,
Q:What kind of industry does high-performance carbon fiber belong to?
High performance carbon fiber is used in many industries, such as automobiles, bicycles, and even the aviation industry.. If you look at the industry type, many industries have high-performance carbon fiber figure, if divided by the industry attributes, should belong to the emerging industry, the future potential of the industry
Q:How does carbon impact the productivity of marine ecosystems?
Carbon impacts the productivity of marine ecosystems in several ways. One of the main ways is through ocean acidification. When carbon dioxide from human activities is released into the atmosphere, a significant portion of it gets absorbed by the oceans. This excess carbon dioxide reacts with seawater to form carbonic acid, leading to a decrease in the pH of the ocean. This increase in acidity has detrimental effects on many marine organisms, especially those that rely on calcium carbonate to build their shells or skeletons, such as corals, shellfish, and some plankton species. Ocean acidification inhibits the process of calcification, making it difficult for these organisms to develop and maintain their protective structures. This not only affects their survival but also impacts the entire food chain. Many species rely on these calcium carbonate structures as a food source or for shelter, so a decline in their productivity can have cascading effects on the ecosystem. Additionally, increased carbon dioxide levels in the ocean can also affect the metabolism and physiology of marine organisms. Some studies have found that elevated CO2 concentrations can impair the growth, development, and reproductive success of certain species. This can lead to a decrease in overall productivity within the ecosystem. Furthermore, climate change, driven by the accumulation of carbon dioxide in the atmosphere, also impacts marine ecosystems. Rising temperatures can disrupt the delicate balance of marine ecosystems, affecting the distribution and abundance of species, altering predator-prey relationships, and leading to changes in the timing of vital ecological events such as spawning or migration. These changes can have profound impacts on the productivity of marine ecosystems, as different species may 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, driven by excessive carbon dioxide, have detrimental effects on the productivity of marine ecosystems, affecting the growth, survival, and reproductive success of marine organisms. The impacts of carbon on marine ecosystems highlight the urgent need to reduce greenhouse gas emissions and mitigate the effects of climate change to protect these fragile and vital ecosystems.
Q:How is carbon used in the production of carbon nanowires?
Carbon is used as the primary building block in the production of carbon nanowires. These nanowires are created by controlled synthesis methods that involve the deposition of carbon atoms in a specific pattern. This can be achieved through techniques like chemical vapor deposition or electrochemical deposition. By manipulating the carbon atoms, researchers can form long, thin wires with a diameter on the nanoscale. These carbon nanowires possess unique properties, making them valuable for various applications, including electronics, energy storage, and nanotechnology.
Q:How does carbon affect the formation of earthquakes?
Carbon does not directly affect the formation of earthquakes. Earthquakes are caused by the movement of tectonic plates and the release of accumulated stress in the Earth's crust. Carbon, however, can indirectly influence the frequency and intensity of earthquakes through human activities such as mining and fracking, which can trigger seismic events in certain circumstances.

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