Recarburizer 5-8mm 90% FC Carburant Carbon Additives

Recarburizer 5-8mm 90% FC Carburant Carbon Additives System 1

Recarburizer 5-8mm 90% FC Carburant Carbon Additives System 2

Recarburizer 5-8mm 90% 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 90% 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 90% FC

Fixed carbon	≥ 90.5%
Ash content	≤ 8.0%
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 90% FC

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

Characteristics of Recarburizer 90% 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 does carbon contribute to the structure of DNA?: The structure of DNA relies heavily on carbon, as it plays a critical role in its composition. Carbon is a crucial element in the formation of the sugar-phosphate backbone, which is an integral part of the DNA molecule. This backbone consists of alternating sugar and phosphate molecules, with the sugar molecule being deoxyribose in DNA. Deoxyribose sugar contains five carbon atoms, making carbon a significant component in its structure. These carbon atoms provide stability and rigidity to the backbone, ensuring the overall structure of the DNA molecule remains intact. Additionally, carbon also contributes to the formation of the nitrogenous bases that form the ladder-like structure of DNA. There are four nitrogenous bases in DNA: adenine (A), guanine (G), cytosine (C), and thymine (T). Carbon atoms are present in the structure of each of these bases, giving them their distinct chemical properties. Various functional groups containing carbon, such as amino and keto groups, actively participate in hydrogen bonding and stacking interactions that determine the base pairing within the DNA double helix. To summarize, carbon is an indispensable element in the structure of DNA. It not only provides stability and rigidity to the sugar-phosphate backbone but also plays a crucial role in the formation of the nitrogenous bases. The unique properties of carbon enable DNA to maintain its double helix structure and facilitate the accurate transmission of genetic information.

Q:Material characteristics of carbon fiber: This allows carbon fibers to have the highest specific strength and specific modulus in all high-performance fibers. Compared with the metal materials such as titanium, steel and aluminium, carbon fiber has the characteristics of high strength, high modulus, low density and low coefficient of linear expansion. It can be called the "king of new materials". In addition to carbon fiber with general characteristics of carbon material, its appearance has obvious anisotropy and soft, can be processed into a variety of fabrics, and the proportion of small, along the fiber axis show a very high strength carbon fiber reinforced epoxy resin composites, the strength and modulus of composite indicator in the existing structural materials is the highest. The tensile strength of carbon fiber resin composite materials are generally in more than 3500 MPa, is 7 to 9 times that of steel, the tensile modulus of 230 to 430G were also higher than that of steel; therefore the specific strength of CFRP material intensity and density can be achieved above 2000 MPa, the specific strength of A3 steel is only 59 MPa.

Q:Is aluminum alloy expensive or high carbon steel expensive?: Here is a concept to be worked out:High carbon steel is more carbon in iron. The strength is better than general iron.Aluminum alloy is not pure aluminum, if it is pure aluminum frame, it can not be used as frame, aluminum alloy frame generally after T6 (T4), the intensity is absolutely guaranteed.Now the material is generally so divided:The iron - Aluminum Alloy frame - magnesium alloy - titanium alloy, carbon fiberThe top is divided into grades.

Q:How is carbon used in the production of fuels?: Carbon is used in the production of fuels through a process called carbonization, where organic materials such as coal, oil, and natural gas are heated in the absence of air to produce carbon-rich substances like coke and charcoal. These carbon-rich substances can then be further processed to create various types of fuels, including gasoline, diesel, and natural gas, which are essential for powering vehicles, generating electricity, and heating homes and industries.

Q:How does carbon impact the prevalence of wildfires?: Carbon impacts the prevalence of wildfires in several ways. First, carbon dioxide (CO2) is a greenhouse gas that contributes to climate change. As concentrations of CO2 increase in the atmosphere, temperatures rise, leading to drier conditions in many regions. These dry conditions create a more favorable environment for wildfires to ignite and spread. Furthermore, carbon plays a significant role in the fuel load that can feed wildfires. Carbon-based materials, such as dead vegetation, trees, and other organic matter, serve as the primary fuel source for fires. As carbon accumulates in ecosystems, either through natural processes or human activities like deforestation, the amount of potential fuel for wildfires increases. This elevated fuel load can result in more frequent and intense fires. Additionally, carbon impacts the health and vitality of forests. Elevated levels of atmospheric CO2 can enhance plant growth, leading to denser vegetation. While this may seem beneficial, it can actually contribute to the intensity and severity of wildfires. Denser vegetation creates a greater amount of fuel, and when combined with the dry conditions caused by climate change, it becomes a recipe for more destructive fires. Lastly, the combustion of carbon-based materials during wildfires releases large amounts of carbon dioxide into the atmosphere. This creates a positive feedback loop, as the increased carbon emissions contribute to further climate change, which in turn exacerbates the conditions for wildfires. Overall, carbon plays a crucial role in shaping the prevalence and severity of wildfires through its impact on climate change, fuel load, forest health, and the release of greenhouse gases during combustion. Addressing carbon emissions and implementing effective forest management practices are essential in mitigating the risks and impacts associated with wildfires.

Q:What is the effect of carbon equivalent on welding?: Carbon equivalent is the conversion of various alloying elements in steel to carbon content! Carbon and alloying elements in steel have different effects on weldability of steel. Carbon has the greatest impact, and other alloy elements can be converted into carbon to estimate the weldability of the welded material. The converted sum is called the carbon equivalent! In Li Guang is used in carbon steel Q235, so if you just want to know welding business, ha ha, can put the carbon steel as the approximation of the carbon equivalent, carbon equivalent higher welding performance worse!

Q:How is carbon used in the production of nanoelectronics?: The production of nanoelectronics involves the diverse utilization of carbon. One of the most notable applications is seen in the creation of carbon nanotubes (CNTs), which are cylindrical structures composed solely of carbon atoms. These nanotubes possess exceptional electrical and mechanical properties that render them highly suitable for incorporation into nanoelectronic devices. CNTs can serve as transistors, which serve as the fundamental building blocks of electronic circuits. Due to their diminutive size and outstanding electrical conductivity, CNT transistors have the capacity to generate high-performance, low-power devices. Consequently, they hold the potential to supplant conventional silicon transistors, thus enabling the development of more sophisticated and compact electronic devices. In addition, carbon plays a pivotal role in the production of graphene, a single layer of carbon atoms arranged in a two-dimensional honeycomb lattice. Graphene exhibits extraordinary electrical conductivity, thermal conductivity, and mechanical strength. Consequently, it can function as a conductive material in nanoelectronics, thereby facilitating the creation of swifter and more efficient electronic devices. Moreover, carbon-based materials can be employed in nanoelectronics for energy storage purposes. For example, carbon nanotubes and graphene can be harnessed in supercapacitors, energy storage devices that possess the ability to rapidly store and discharge substantial amounts of electrical energy. These carbon-based energy storage systems hold the potential to revolutionize the realm of portable electronics and electric vehicles. In conclusion, the extensive utilization of carbon in the production of nanoelectronics can be observed. Its distinctive properties, including heightened electrical conductivity, mechanical strength, and thermal conductivity, render it an ideal material for the advancement of high-performance electronic devices. Carbon nanotubes, graphene, and other carbon-based materials serve as crucial components in the fabrication of nanoelectronic devices, thereby enabling progress in computing power, energy storage, and the miniaturization of electronic components.

Q:What is carbon fiber reinforced polymer?: Carbon fiber reinforced polymer (CFRP) is a composite material made up of carbon fibers embedded in a polymer matrix. It combines the high strength and stiffness of carbon fibers with the lightweight and corrosion-resistant properties of the polymer matrix. CFRP is widely used in various industries, including aerospace, automotive, and sporting goods, due to its exceptional strength-to-weight ratio and superior mechanical properties.

Q:How does carbon impact the migration patterns of animals?: Carbon emissions and climate change have significant impacts on the migration patterns of animals. The increased release of carbon dioxide in the atmosphere leads to global warming, which alters the timing and availability of critical resources necessary for migration, such as food and water. One of the most noticeable impacts of carbon emissions on animal migration is the alteration of seasonal patterns. As the climate warms, the timing of seasons changes, affecting the availability of food sources that animals rely on during migration. For instance, the earlier arrival of spring can result in a mismatch between the timing of migration and the availability of food, leading to negative consequences for the survival and reproduction of migratory species. Furthermore, climate change caused by carbon emissions affects the habitats and ecosystems that animals depend on during migration. Rising temperatures and changing precipitation patterns can lead to the loss or degradation of crucial habitats, such as wetlands or coastal areas, which serve as stopover points or breeding grounds for migratory animals. This loss of habitat can disrupt migration routes and cause changes in the distribution and abundance of species. In addition, carbon emissions contribute to the acidification of oceans, which has severe consequences for migratory species that rely on marine ecosystems. Acidification affects the availability of food and affects the reproductive success of marine species, leading to changes in migration patterns and population dynamics. Overall, the impact of carbon emissions on animal migration patterns is complex and multifaceted. It disrupts the delicate balance of ecosystems, altering the availability of resources and habitats that animals rely on during migration. Understanding these impacts is crucial for developing effective conservation strategies to mitigate the negative consequences of climate change on migratory species and maintain the integrity of their habitats.

Q:How does carbon affect the formation of cyclones?: Carbon dioxide (CO2) and other greenhouse gases, primarily emitted through human activities, contribute to the warming of the Earth's atmosphere. This increase in temperature impacts the formation and intensity of cyclones. Warmer sea surface temperatures provide more heat and moisture, fueling the development and strengthening of cyclones. Additionally, higher levels of carbon dioxide may lead to changes in atmospheric circulation patterns, potentially affecting the location and frequency of cyclone formation.

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