Carbon Aditive F.C. 92%min

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1.Features:

Carbon Additive also called Calcined anthracite Coal, Gas Calcined Anthracite Coal, Carbon Raiser.

The main raw material is Ningxia unique high quality anthracite, with characteristic of low ash and low sulfur. Carbon additive has two main uses, namely as the fuel and additive. When being used as the carbon additive of steel-smelting, and casting, the fixed carbon may achieve above 95%.

2.Application:

It may substitute massively refinery coke or the stone grinds. Meanwhile its cost is much less than the refinery coke and the stone grinds. Carbon Additive may also use as the fuel, for its calorific value may achieve above 9386K/KG. It may substitute burnt carbon massively. The burnt carbon exportation needs the quota; therefore the carburizing agent price superiority is similarly obvious.

3.Specifications:

Chemical Composition（%）
F.C.	Ash	V.M.	S	Moisture
%(min)	%（max）
92	7.0	1.2	0.30	1.0
0.5-3mm, 1-4mm,0.5-4mm,1-3mm, 90%min,or at customer’s option;
In 1000kgs big bag; or 1200kgs big bag; or 25kgs small bag, then into 1000kgs big bag; or 25kgs or 50kgs small bag, then put into containers directly;or at customer’s option;

Q:Consult the carbon content of austenite: Pure iron carbon alloys, austenitic (A) carbon content in different grades, different temperature and different, in more than 727 degrees (727 degrees when the carbon content is 0.77%), 1148 degrees, 2.11% carbon content with see iron carbon phase diagram

Q:Power plant water treatment plant, there is a carbon removal device, the expert pointing out what the principle is it?: The role of carbon dioxide removal in the process of ion exchange water treatment is to remove carbon dioxide from water, to reduce the load of anion exchange, to improve the economy of the water treatment system and the water quality of the effluent. The equipment uses blast degassing to remove the free carbon dioxide in the water. When the carbon dioxide content (Alkalinity) in the influent is greater than 50mg / 1, the carbon dioxide removal device is more economical and reasonable in the stage bed cleaning system. Behind the water treatment process in general on the hydrogen ion exchanger, as long as the choice of the right, the carbon remover, water residue of carbon dioxide is less than or equal to 5mg/L.

Q:What are the effects of carbon dioxide on ocean acidity?: Ocean acidity is significantly impacted by carbon dioxide (CO2), resulting in a phenomenon known as ocean acidification. When humans release CO2 into the atmosphere through activities like burning fossil fuels, the oceans absorb it. This absorption triggers chemical reactions that form carbonic acid, which lowers the pH of seawater. The increased concentration of carbonic acid in the oceans disrupts the delicate balance of carbonate ions, which are necessary for the formation of calcium carbonate. Numerous marine organisms, including coral reefs, shellfish, and plankton, rely on calcium carbonate to construct their shells and skeletons. As the ocean becomes more acidic, the concentration of carbonate ions decreases, making it increasingly challenging for these organisms to create and maintain their protective structures. Ocean acidification poses a significant threat to marine ecosystems and biodiversity. Coral reefs, for example, are particularly vulnerable to acidification. As acidity increases, corals struggle to build and maintain their calcium carbonate structures, resulting in bleaching and eventual death of the reefs. The loss of coral reefs has severe consequences for the countless species that depend on them for food, shelter, and reproduction. Additionally, other marine organisms such as shellfish and plankton are also affected by ocean acidification. Shellfish, including oysters, clams, and mussels, rely on calcium carbonate for their shells. As acidity rises, the availability of carbonate ions decreases, making it harder for these organisms to construct their protective shells. This can lead to reduced populations of shellfish, impacting not only the organisms themselves but also the industries and communities that rely on them economically and culturally. Plankton, the foundation of the marine food web, are also susceptible to the effects of increased ocean acidity. Many plankton species possess calcium carbonate structures that provide buoyancy and protection. As acidity rises, these structures weaken, making it more difficult for plankton to survive and reproduce. This disruption in the plankton community can have far-reaching consequences for the entire marine food chain, impacting fish, marine mammals, and ultimately, humans who rely on seafood as a primary source of protein. In conclusion, the impact of carbon dioxide on ocean acidity is significant and concerning. Ocean acidification jeopardizes the health and stability of marine ecosystems, affecting crucial organisms like coral reefs, shellfish, and plankton. Understanding and addressing this issue are crucial for the long-term health of our oceans and the countless species that depend on them.

Q:How does carbon affect the fertility of soil?: Carbon is essential for maintaining and enhancing soil fertility. It provides a food source for soil microorganisms, promotes nutrient availability, and improves soil structure, water holding capacity, and overall soil health. Additionally, carbon helps increase the capacity of soil to retain and release nutrients, creating a favorable environment for plant growth and enhancing soil fertility.

Q:What is carbon fixation in biology?: Carbon fixation is the process by which carbon dioxide from the atmosphere is converted into organic compounds by plants, algae, and some bacteria. This process is crucial for the production of organic matter and the maintenance of a stable carbon cycle on Earth.

Q:What is carbon nanosensor?: Utilizing carbon-based materials at the nanoscale, a carbon nanosensor is designed to detect and measure various substances or physical properties. These sensors possess a high sensitivity and are incredibly small, enabling them to detect even the tiniest amounts of target molecules or changes in their surroundings. By functionalizing the surface of the carbon nanomaterials with specific receptors or probes, carbon nanosensors can be tailored to target specific molecules or properties. Furthermore, integration with other technologies, like electronics, allows for real-time monitoring and data analysis. Carbon nanomaterials possess unique properties, such as high surface area, electrical conductivity, and chemical stability, that render them perfect for constructing versatile and sensitive sensors applicable in a wide range of fields, including environmental monitoring, medical diagnostics, and food safety.

Q:How does carbon impact soil health?: The role of carbon in maintaining and improving soil health cannot be overstated. Carbon is a vital component of organic matter, which is crucial for fertile and productive soils. By decomposing plant and animal residues, carbon is introduced into the soil, resulting in better soil structure, increased water holding capacity, and improved nutrient availability. Soil structure is greatly influenced by carbon, as it binds with soil particles to form aggregates. These aggregates create pore spaces within the soil, allowing for improved aeration, water infiltration, and root penetration. The presence of these pore spaces encourages the growth of beneficial soil organisms like earthworms and microorganisms, which further contribute to soil health. In addition to enhancing soil structure, carbon also plays a critical role in improving the water holding capacity of soils. Organic matter, which is rich in carbon, acts like a sponge, holding moisture and preventing water runoff. This is especially important in regions with arid or drought-prone climates, where water scarcity is a concern. Increased water retention not only helps plants withstand dry periods but also reduces erosion and nutrient leaching. Furthermore, carbon is an essential nutrient for soil microbes. Microorganisms, such as bacteria and fungi, break down organic matter and release nutrients that plants require for growth. Carbon-rich soils provide an ideal environment for these microorganisms to thrive, resulting in greater nutrient availability for plants. Additionally, as microorganisms decompose organic matter, they release beneficial substances like enzymes and hormones that support plant growth and overall soil health. To summarize, the impact of carbon on soil health cannot be ignored. It improves soil structure, enhances water holding capacity, and promotes nutrient availability. Therefore, it is crucial to manage and increase carbon content in soils through practices like incorporating organic amendments, implementing cover cropping, and minimizing tillage. These actions can significantly benefit agricultural productivity and sustainability.

Q:What is fullerene?: A unique structure resembling a hollow cage or sphere is what constitutes a fullerene, a molecule composed entirely of carbon atoms. Alongside graphite and diamond, it is considered a form of carbon allotrope. The renowned and most commonly known fullerene is referred to as buckminsterfullerene or simply C60, which takes the shape of a soccer ball with 60 carbon atoms. Fullerenes come in a range of sizes, from as little as 20 carbon atoms to several hundred. They can be found naturally in soot or formed through different methods like laser ablation or chemical vapor deposition. With their distinct structure, fullerenes possess exceptional properties, such as high strength, low density, and excellent electrical and thermal conductivity. Therefore, they have found applications in various fields, including nanotechnology, electronics, medicine, and materials science.

Q:What are the implications of melting permafrost on carbon emissions?: The melting of permafrost has significant implications on carbon emissions. Permafrost contains large amounts of organic matter, such as dead plants and animals, which have been frozen and stored for thousands of years. When permafrost thaws, this organic matter decomposes and releases carbon dioxide and methane, two potent greenhouse gases. These greenhouse gases further contribute to global warming, exacerbating climate change. Additionally, the release of carbon from melting permafrost creates a positive feedback loop, as increased global temperatures lead to more permafrost thawing, causing even more carbon emissions. This highlights the urgent need to address permafrost melting as part of efforts to mitigate climate change.

Q:What are the different types of carbon-based plastics?: There are several different types of carbon-based plastics, each with unique properties and applications. Some common types include: 1. Polyethylene (PE): This is the most widely used plastic and can be found in various forms such as high-density polyethylene (HDPE) and low-density polyethylene (LDPE). PE is known for its strength, flexibility, and resistance to chemicals, making it suitable for applications like packaging, pipes, and toys. 2. Polypropylene (PP): PP is another popular plastic known for its high melting point, chemical resistance, and durability. It is commonly used in automotive parts, appliances, and packaging. 3. Polystyrene (PS): PS is a rigid plastic that is often used in disposable products like food containers and packaging materials. It is lightweight and has good insulation properties. 4. Polyvinyl Chloride (PVC): PVC is a versatile plastic that can be rigid or flexible depending on its formulation. It is commonly used in construction materials, pipes, cables, and vinyl flooring. 5. Polyethylene Terephthalate (PET): PET is a strong and lightweight plastic that is commonly used in beverage bottles, food packaging, and textile fibers. It is known for its excellent gas and moisture barrier properties. 6. Polycarbonate (PC): PC is a transparent plastic known for its high impact resistance and heat resistance. It is often used in eyewear, automotive parts, and electronic devices. These are just a few examples of carbon-based plastics, and there are many other variations and blends available in the market. The choice of plastic depends on its intended application, desired properties, and environmental considerations.

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