Recarburizer 1-3MM 93% FC Carburant Carbon Additives

Recarburizer 1-3MM 93% FC Carburant Carbon Additives System 1

Recarburizer 1-3MM 93% FC Carburant Carbon Additives System 2

Recarburizer 1-3MM 93% FC Carburant Carbon Additives

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Loading Port:: Qingdao

Payment Terms:: TT OR LC

Min Order Qty:: 10 m.t.

Supply Capability:: 50000 m.t./month

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Specifications Of Recarburizer 93% FC

- High C content;

- Low S and N content;

- High abosorbility;

Recarburizer(Carburant, carbon additives) with high quality, 0-20mm for metal casting foundry and steel plant, low nitrogen content and high carbon content, min 90% carbon content, at the same time as your requirements with no problem. The best media for adding carbon.

Technical Data Sheet of Recarburizer 93% FC

Fixed carbon	≥ 93%
Ash content	≤ 5.0%
Vol . Matter	≤ 1.0%
Sulphur content	≤ 0.3%
Moisture content	≤ 0.3%
Size	0-20mm or as your requirement.
Packing	- 25kg bag - One tone bags, Jumbo bag
Delivery time	In 5-10 working days or depends on the order quantity
Supply ability	50000 Metric Ton Per Month
Payment terms	L/C at sight or T/T

Available Size: 0,1-4mm, 1-5mm, 3-8mm, 8-20mm (as per customers’ requirements)

Usage: widely used in casting foundry, steel-making, metallurgical Etc.

Applications of Recarburizer 93% FC

Mainly used in steel making in electrical stove, screening water, ship building sandblast to remove rust,producing carbon materials Etc.

Characteristics of Recarburizer 93% FC

- Particle size, porosity, absorption speed stable

- High degree of carbonize product, increase the original nuclear capability in the shape of liquid iron.

- Increased in the inoclation of nodular cast iron ball ink quantiyt, increase in th electric furnace iron graphit crystal nucleus.

- Excellent performance, stable.

Q: How is carbon used in the production of diamonds?: The production of diamonds relies heavily on carbon, which is the primary component that constructs the diamond's structure. Deep within the Earth's mantle, where there are extreme levels of heat and pressure, carbon atoms bond together in a distinctive crystal lattice formation, giving birth to diamonds. This natural process, called carbon crystallization, takes place over an extensive period of millions of years. To create synthetic diamonds, scientists recreate these intense conditions in a laboratory. They employ high-pressure, high-temperature (HPHT) machines to subject a tiny piece of carbon, like graphite, to immense pressure and heat. This simulation imitates the natural process that occurs in the Earth's mantle, allowing the carbon atoms to rearrange themselves and transform into diamonds. An alternative method, known as chemical vapor deposition (CVD), involves the controlled use of a hydrocarbon gas, such as methane, in a specific environment. The gas is introduced into a chamber and heated, causing the carbon atoms to separate from the hydrogen atoms. These carbon atoms then settle on a substrate, like a diamond seed, and gradually accumulate layer by layer, eventually forming a diamond. In both methods, carbon acts as the fundamental building block for the diamond's structure. By manipulating the conditions in which carbon atoms are exposed to extreme heat and pressure, scientists and manufacturers are able to control the growth and formation of diamonds. This manipulation allows for the production of synthetic diamonds that possess identical physical and chemical properties to natural diamonds. In conclusion, carbon plays an indispensable role in the production of diamonds, serving as the essential element that facilitates the formation and growth of these valuable gemstones.

Q: How is carbon used in the production of ink?: Various forms of carbon, such as carbon black or activated carbon, are employed in the production of ink. Carbon black, a fine black powder derived from incomplete petroleum combustion, is commonly used as a pigment to achieve deep black color in inks. Its small size and high surface area enable even dispersion in the ink, ensuring consistent color. On the other hand, activated carbon is a porous carbon form produced by heating materials like wood or coconut shells at high temperatures. In ink production, it functions as a filter or purification agent. With its extensive surface area and microscopic pores, activated carbon effectively adsorbs contaminants and impurities from the ink, enhancing its quality and stability for a smooth flow. In addition to its purification role, carbon also serves as a conductive material in ink production. Carbon-based inks, widely utilized in applications requiring electrical conductivity such as printed circuit boards, sensors, or electronic devices, consist of dispersed carbon particles in a liquid medium. This allows them to be printed or deposited onto a substrate, creating conductive pathways. Overall, carbon's vital role in ink production encompasses providing color, acting as a purification agent, and enabling electrical conductivity. Its adaptable properties and vast range of applications establish it as an indispensable component in the ink manufacturing process.

Q: How does carbon impact the prevalence of earthquakes?: Carbon does not directly impact the prevalence of earthquakes. Earthquakes are primarily caused by the movement of tectonic plates and the release of built-up stress along fault lines. However, carbon emissions and climate change can indirectly affect the frequency and intensity of earthquakes by contributing to the melting of glaciers and polar ice caps, which in turn can lead to changes in the Earth's crust and the redistribution of its mass. These changes can potentially influence the occurrence of seismic activities.

Q: How does carbon affect the formation of desertification?: The formation of desertification is not directly affected by carbon. Rather, desertification is primarily caused by a combination of natural factors, such as climate change, prolonged drought, and human activities like deforestation and overgrazing. However, carbon does play an indirect role in exacerbating desertification through climate change. Carbon dioxide (CO2), a greenhouse gas, is released into the atmosphere through human activities, particularly the burning of fossil fuels. The increased concentration of CO2 in the atmosphere leads to global warming, which alters climate patterns and increases the frequency and intensity of droughts. Prolonged droughts deplete soil moisture, making the land more susceptible to erosion and degradation, thus contributing to the desertification process. Furthermore, carbon indirectly affects desertification through deforestation. Trees and other vegetation play a vital role in maintaining healthy soil by preventing erosion, retaining moisture, and providing shade. When forests are cleared, the carbon stored in trees is released into the atmosphere, contributing to higher CO2 levels. Additionally, the loss of vegetation cover exposes the soil to erosion by wind and water, which accelerates desertification. It is important to acknowledge that while carbon indirectly impacts desertification through climate change and deforestation, desertification itself is a complex process influenced by various factors. Addressing desertification requires a comprehensive approach involving sustainable land management practices, reforestation efforts, water management, and strategies to mitigate climate change.

Q: How do you use carbon fourteen to measure the age?: One is obvious a small amount of sample, only 1 ~ 5 mg samples can be, such as a piece of fabric, bone chips, toner trace of ancient ceramics in the surface or pores can be measured; while the conventional carbon - 14 dating rules 1 to 5 grams of samples differ by 3 orders of magnitude. The two is high sensitivity. The sensitivity of 10-15 to 10-16 isotope ratio measurement; while the conventional carbon - 14 dating rules with a difference of 5 to 7 orders of magnitude. Three is a short measurement time, measurement of modern carbon to reach 1% accuracy, only 10 to 20 minutes; while the conventional carbon - 14 dating is 12 ~ 20 hours. It is due to carbon - 14 accelerator mass spectrometry dating method has the advantage, since its inception, has been paid attention to by archaeologists, paleontologists and geologists, and is widely used. It can be said that within 50000 years of cultural relics on the determination of samples, carbon - 14 accelerator mass spectrometry dating method is determined the accuracy of a maximum of 1. carbon. 14 is a radioactive isotope of carbon, was found in 1940. It is produced by cosmic rays collide with a nitrogen atom in the air, which has a half-life of about 5730 years, as the decay of beta decay, 14 atoms into carbon nitrogen atoms.

Q: How many electrons does carbon have?: Carbon has 6 electrons.

Q: What is carbon nanocomposite coating?: Carbon nanocomposite coating is a type of protective coating that is made using carbon nanotubes or other carbon-based nanoparticles. These nanoparticles are dispersed within a matrix material, such as polymer or metal, to create a thin film that can be applied onto various surfaces. The main purpose of carbon nanocomposite coatings is to enhance the mechanical, thermal, and electrical properties of the coated material. The addition of carbon nanoparticles improves the strength, hardness, and wear resistance of the coating, making it more durable and long-lasting. It also provides excellent corrosion resistance, making it suitable for applications in harsh environments. One of the key advantages of carbon nanocomposite coatings is their ability to provide multifunctional properties. For example, they can be engineered to have high electrical conductivity, which makes them ideal for applications in electronics and electrochemical devices. Additionally, they can have high thermal conductivity, making them useful for heat dissipation in electronic devices or as a thermal barrier coating. Moreover, carbon nanocomposite coatings have shown promising results in various fields such as aerospace, automotive, energy, and healthcare. In aerospace, they can be used to improve the performance and durability of aircraft components, while in the automotive industry, they can provide anti-scratch and self-cleaning properties. In energy applications, they can be utilized to enhance the efficiency of solar panels or to prevent corrosion in oil and gas pipelines. Additionally, in healthcare, they can be used for drug delivery, as antibacterial coatings, or for bio-sensing applications. Overall, carbon nanocomposite coatings offer a wide range of benefits, including improved mechanical and electrical properties, corrosion resistance, and multifunctionality. With ongoing research and development, these coatings hold great promise for various industries, providing innovative solutions to address their specific needs and challenges.

Q: What are the effects of carbon emissions on the stability of peatlands?: Carbon emissions have significant effects on the stability of peatlands, leading to various environmental and ecological consequences. Peatlands are wetland ecosystems composed of partially decomposed organic matter, primarily consisting of dead plants and mosses. These ecosystems are known as important carbon sinks, storing large amounts of carbon in the form of plant material and organic peat. When carbon emissions, particularly from the burning of fossil fuels, are released into the atmosphere, it contributes to the overall increase in greenhouse gases, such as carbon dioxide (CO2) and methane (CH4). This increase in greenhouse gases leads to global warming and climate change, which have direct impacts on peatlands. One of the primary effects of carbon emissions on peatlands is the acceleration of peat decomposition. As temperatures rise due to global warming, the rate of microbial activity in peatlands increases, resulting in faster decomposition of organic matter. This process releases carbon dioxide and methane, further contributing to greenhouse gas emissions. The increased decomposition can also lead to the subsidence or sinking of peatlands, which affects their stability and can contribute to land degradation. Additionally, carbon emissions can alter the hydrology of peatlands. Rising temperatures can cause increased evaporation and reduced precipitation, leading to drier conditions in peatlands. This can result in water tables dropping below the surface, which inhibits the growth of mosses and the accumulation of new peat. As a result, peatlands become less capable of sequestering carbon and can even transition into carbon sources rather than sinks. The destabilization of peatlands due to carbon emissions has cascading effects on the overall ecosystem. Peatlands provide habitats for numerous plant and animal species, many of which are unique and highly adapted to these specific environments. The drying and sinking of peatlands can disrupt these ecosystems, leading to changes in the composition and distribution of species, as well as increased susceptibility to invasive species. Furthermore, the release of carbon dioxide and methane from peatlands contributes to the amplification of climate change. These greenhouse gases trap heat in the atmosphere, leading to further warming and exacerbating the cycle of peat decomposition and carbon emissions. In conclusion, carbon emissions have detrimental effects on the stability of peatlands, including accelerated peat decomposition, altered hydrology, and disruption of ecosystems. These impacts not only hinder peatlands' ability to sequester carbon but also contribute to climate change, creating a negative feedback loop. It is crucial to reduce carbon emissions and prioritize the preservation and restoration of peatlands to mitigate these effects and protect these valuable ecosystems.

Q: Which carbon content is larger, steel or pig iron?: Iron and steel is distinguished by carbon: carbon content below 2.11% for carbon steel, according to can be divided into carbon steel low carbon steel (WC = 0.25%), carbon steel (WC0.25% - 0.6%) and high carbon steel (WC>0.6%);

Q: Carbon 60 related information: Discovery and structural features of carbon sixtyIn October 7, 1996, the Royal Swedish Academy of Sciences decided to award the 1996 Nobel prize for chemistry to Robert FCurl, Jr (USA), Harold WKroto (UK) and Richard ESmalley (USA) in recognition of their discovery of C60.In early September 1995, Rice University of Texas Smalley lab, Kroto etc. in order to form the process simulation of carbon clusters N near the red giant in the atmosphere, the laser gasification experiment of graphite. They found that there is a series formed by an even number of carbon atoms from the molecular mass spectra, which have a 20~25 times larger than the other peak peak, the peak corresponding to the quality of the number of molecules formed by 60 carbon atoms.What structure of C60 molecules can be stabilized? Layered graphite and diamond tetrahedral structure exists in the form of two kinds of stable carbon, when 60 carbon atoms arranged in any of them, there will be many dangling bonds, will be very lively, not showing the mass signal so stable. This shows that the C60 molecule has a completely different structure from graphite and diamond. Inspired by architect Buckminster Fuller composed of pentagons and hexagons dome building, Kroto thinks that C60 is composed of 60 spherical carbon atoms with 32 sides, i.e. 12 pentagons and 20 hexagons, so there is no double bond in C60 molecule.In C60 molecules, each carbon atom with three carbon atoms in SP2 hybrid orbitals and the adjacent connected, a hybrid P track did not participate in the remaining in the C60 shell periphery and the cavity formed spherical PI key, thus having aromatic. In honor of Fuller, they proposed the use of Buckminsterfullerene to name C60. Later, all the molecules containing even numbered carbon, including C60, were called Fuller, and the name was fullerene.

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