Foundry Coke for Foundry Plant with ash 0.8%max

Foundry Coke for Foundry Plant with ash 0.8%max

Ref Price:

Loading Port:: Fuzhou

Payment Terms:: TT OR LC

Min Order Qty:: 21.6

Supply Capability:: 1016 m.t./month

Inquire Now

Add to My Favorites

OKorder Service Pledge

Quality Product, Order Online Tracking, Timely Delivery

OKorder Financial Service

Credit Rating, Credit Services, Credit Purchasing

You Might Also Like

Carbon Fiber Fabric

Carbon Fiber/ Fiberglass Tube/Pipe

Carbon Fiber 3K-T400

Graphite Electrode Scrap high-purity as carbon additive and carburant

High Quality Carbon Electrode Paste With Low Ash

Good Quality Injection Carbon With FC 80-95%

Calcined Peroleum Coke with good quality

Injection Carbon FC94 with Good and Stable Quality

Brief Introduction

Foundry Coke is the main fuel of melting iron in the oven. It can melt the materials in the over, make the iron reach great heat, and keep good air permeability by sustain stock column. Thus, the foundry coke should have the characteristics of big block, low reactivity, small porocity, enough anti-crush strengh, low ash and low sulphur.

The coke handled by our cooperation is made from superior coking coal of Shanxi province. Provided with the advantages of low ash, low sulphur and high carbon. Our coke is well sold in European, American, Japanese and South-east Asian markets. Our owned Coke plant are located in Shanxi Province and supplying of you many kinds of coke. We are serving the world

we supply Foundry Coke long-term, its characteristic is best strength, low sulfur and phosphorus,thermal stability.

Specifications:

PARAMETER UNIT GUARANTEE VALUE
ASH %	8% max	10% max	12% max
V.M.% MAX	1.5% max	1.5% max	2% max
SULFUR %	0.65% max	0.65% max	0.7% max
MOISTURE	5% max	5% max	5% max
Size	80mm-120mm，80-150，100-150mm, or as request

Features

1. Our quality is always quite good and stable which is producing and packing according to customers' requirements.

2. Putting Client profile into first, achieved mutual benefit.

3. Good partner on business. It's a good and wise choice for customers' to purchase from us. It's our great honor to cooperate with you. It is more -widely used around the world

4. We can supply documents as follows:

- bill of loading,

-Invoice,

-Packing List

-Insurance

-standard inspection pictures of the container as specified by INSPECTORATE

-or more requested by buyer.

Pictures

Foundry Coke for Foundry Plant with ash 0.8%max

FAQ

1. What is the packing?

In 25kg bag/ In jumbo bags without pallet/ Two jumbo bags with one pallet/ or as customers’ request

2. What is the production capacity?

10 thousand tons per month

3 What is payment term?

Irrevocable LC at sight/ 20% down payment by T/T and 80% against BL copy byT/T/ or to be discussed

4 What is the service?

We will send sample to the third party(CIQ, CCIC, SGS,BV or to be discussed) for checking, and present the test certificate and loading repot of shipment.

Q: What are the 3K, 12K, UD, etc. in the appearance requirements of the carbon fiber bicycle? What's the difference?: 3K 12K UD refers to the pattern of carbon fiber thickness, 3K pattern is the smallest of the above lattice minimum.The higher the number of K, the more tedious the process, the more expensive the cost, but unfortunately, the performance of large pieces of no help, just to meet psychological needs. The smaller the carbon fiber object, the smaller the grid, so that the force is better. The carbon fiber component of the remote control helicopter is the 3K pattern. My 12K version is on ArchitectureThere are some people say: UD carbon cloth is like carbon cloth, and there is a gap between the strength of carbon cloth, 3K carbon cloth is made of 3 thousand carbon fiber woven cloth, UD imitation carbon cloth is formed in parallel with carbon fiber tile free carbon cloth, and then cut into UD imitation carbon cloth needs finally, to make the same width, Zhumie into UD.

Q: What is the role of carbon in the formation of diamonds?: The role of carbon in the formation of diamonds is crucial as it is the sole element responsible for the creation of these precious gemstones. Diamonds are formed deep within the Earth's mantle, under extreme pressure and temperature conditions. Carbon atoms, when subjected to immense pressure and heat, undergo a process called graphitization, where they rearrange their atomic structure and transform into a crystal lattice arrangement, giving rise to the formation of diamonds. The process starts with carbon-rich materials, such as organic matter or carbon-bearing minerals, being exposed to the intense heat and pressure found deep within the Earth's mantle, typically at depths of around 150 to 200 kilometers. Under these conditions, the carbon atoms within these materials are forced to bond together in a unique way, forming the rigid, three-dimensional lattice structure characteristic of diamonds. The formation of diamonds requires specific geological conditions, including temperatures above 900 degrees Celsius and pressures exceeding 725,000 pounds per square inch (50,000 atmospheres). These extreme conditions are typically found in areas where ancient tectonic plates collide or in volcanic eruptions that bring diamonds to the Earth's surface. Carbon's ability to form strong covalent bonds with other carbon atoms is what allows the transformation into diamonds. Each carbon atom forms four strong covalent bonds, creating a tetrahedral structure. This strong bonding allows diamonds to possess exceptional hardness, making them one of the hardest substances known to man. In summary, carbon plays an essential role in the formation of diamonds, undergoing graphitization under immense pressure and temperature conditions to create the unique crystal lattice structure that gives diamonds their extraordinary properties. Without carbon, the formation of diamonds as we know them would not be possible.

Q: How is carbon used in the production of lubricants?: Carbon is used in the production of lubricants in several ways. One of the primary uses of carbon in lubricant production is as a base oil. Carbon-based molecules such as mineral oils, synthetic oils, and vegetable oils serve as the main component of lubricants. These oils are derived from crude oil or synthesized from other carbon-rich compounds. The carbon atoms in the base oil form long chains or rings, which provide excellent lubricating properties. These carbon chains or rings have a high viscosity, which reduces friction between moving parts. This helps to minimize wear and tear, heat generation, and energy loss in various mechanical systems. Carbon is also used in the production of additives for lubricants. These additives are incorporated into the base oil to enhance its performance and provide additional benefits. For example, carbon-based additives such as graphite and molybdenum disulfide can provide superior lubrication under extreme pressures and temperatures. They form a protective layer on the surface of moving parts, reducing friction and preventing metal-to-metal contact. Furthermore, carbon-based additives can also improve the oxidation resistance and anti-wear properties of lubricants. By incorporating carbon molecules with specific functional groups, lubricants gain the ability to form a protective film on metal surfaces, preventing corrosion and extending the lifespan of the machinery. In summary, carbon is a crucial element in the production of lubricants. It serves as the base oil, providing viscosity and lubricating properties, as well as an additive to enhance performance and protect machinery. Without carbon, the production of effective lubricants would not be possible.

Q: How does carbon pricing work?: Carbon pricing is a market-based approach that puts a price on carbon emissions, either through a carbon tax or a cap-and-trade system. The aim is to create an economic incentive for businesses and individuals to reduce their greenhouse gas emissions. By putting a price on carbon, it encourages companies to invest in cleaner technologies, reduce their emissions, or purchase emissions allowances from other entities. This mechanism helps to address climate change by reducing carbon dioxide emissions and promoting the transition to a low-carbon economy.

Q: How is carbon used in the production of ink?: Carbon is used in the production of ink in various forms, such as carbon black or activated carbon. Carbon black is a fine black powder that is derived from the incomplete combustion of petroleum products. It is commonly used as a pigment in inks to provide a deep black color. Carbon black particles are small and have a high surface area, which allows them to disperse evenly in the ink and provide a consistent color. Activated carbon, on the other hand, is a highly porous form of carbon that is produced by heating carbonaceous materials, such as wood or coconut shells, at high temperatures. It is used in ink production as a filter or purification agent. Activated carbon has a large surface area with numerous microscopic pores, which enable it to adsorb contaminants, impurities, and unwanted substances from the ink. This helps improve the quality and stability of the ink, ensuring a smooth and consistent flow. In addition to its use as a pigment and a purification agent, carbon is also utilized in ink production as a conductive material. Carbon-based inks are commonly used in applications that require electrical conductivity, such as printed circuit boards, sensors, or electronic devices. These inks contain carbon particles dispersed in a liquid medium, allowing them to be printed or deposited onto a substrate to create conductive pathways. Overall, carbon plays a crucial role in the production of ink by providing color, acting as a purification agent, and enabling electrical conductivity. Its versatile properties and wide range of applications make it an essential component in the ink manufacturing process.

Q: What are the properties of carbon-based textiles?: Carbon-based textiles offer several distinct advantages in different applications. To begin with, they demonstrate exceptional strength and durability. Renowned for their high tensile strength, carbon-based textiles can resist stretching and tearing, enabling them to withstand harsh conditions and maintain their integrity over time. Moreover, these textiles possess excellent thermal conductivity, efficiently managing heat. This quality proves beneficial in industries like aerospace, automotive, and electronics, where effective heat dissipation is crucial to prevent system failures. Additionally, carbon textiles exhibit remarkable resistance to chemical corrosion, remaining structurally intact even when exposed to various chemicals, acids, and solvents. This resistance makes them ideal for applications in the chemical industry, where contact with corrosive substances is common. Another notable attribute of carbon textiles is their inherent flame resistance. They possess a high resistance to ignition and do not easily propagate flames. Consequently, they find use in environments where fire safety is paramount, such as protective clothing for firefighters and military personnel. Furthermore, carbon-based textiles display good electrical conductivity, making them suitable for electronics and electrical engineering applications. They effectively conduct electricity and dissipate static charges, reducing the risk of electrical malfunctions or damage. Lastly, carbon textiles have a low coefficient of thermal expansion, meaning they undergo minimal expansion or contraction with temperature changes. This property ensures their dimensional stability, guaranteeing that they maintain their shape and size under varying thermal conditions. In conclusion, carbon-based textiles possess a combination of strength, durability, thermal conductivity, chemical resistance, flame resistance, electrical conductivity, and dimensional stability. These properties render them highly versatile and suitable for a wide range of applications across various industries.

Q: How does carbon impact the pH balance of oceans?: Carbon dioxide (CO2) dissolved in seawater reacts with water molecules to form carbonic acid, which lowers the ocean's pH. This decrease in pH, known as ocean acidification, has detrimental effects on marine life, especially organisms that rely on calcium carbonate to build their shells or skeletons. It disrupts the delicate balance of the marine ecosystem, affecting the growth, reproduction, and survival of various species, ultimately posing a threat to the biodiversity and health of our oceans.

Q: How does carbon impact the stability of savannah ecosystems?: The stability of savannah ecosystems relies heavily on carbon, which is crucial for all living organisms and involved in various ecological processes. Carbon exists primarily in the form of organic matter, which is vital for the growth and development of plants, the primary producers in these ecosystems. In savannahs, carbon affects stability in multiple ways. Firstly, carbon dioxide (CO2) plays a significant role in regulating the global climate as a key component of the Earth's atmosphere. Savannahs have the ability to sequester and store large amounts of carbon in their vegetation and soils, thereby mitigating climate change by reducing CO2 levels in the atmosphere. Carbon is also essential for plant growth through photosynthesis. Savannah plants, like grasses and scattered trees, utilize carbon dioxide from the air to produce carbohydrates and other organic compounds. This process not only provides plants with energy but also contributes to the overall productivity of the ecosystem. The stability of savannah ecosystems is also dependent on the interaction between plants and animals. Carbon-rich vegetation serves as a food source for herbivores, which in turn support predators. The carbon cycle ensures a continuous flow of energy and nutrients throughout the food web, maintaining ecosystem balance and stability. Moreover, the carbon content in savannah soils affects their fertility and ability to retain moisture. Organic matter derived from decaying plant material improves soil structure, nutrient availability, and water holding capacity. This, in turn, supports vegetation growth and sustains the diverse array of species found in savannah ecosystems. However, human activities such as deforestation, agricultural practices, and the burning of fossil fuels are disrupting the carbon balance in savannahs. Deforestation removes carbon-rich trees and plants, reducing the overall carbon storage capacity of the ecosystem. Additionally, the release of carbon dioxide from burning fossil fuels contributes to the greenhouse effect and climate change, which can disrupt savannah ecosystem stability. In conclusion, carbon plays a critical role in maintaining the stability of savannah ecosystems. It influences climate regulation, supports plant growth, provides energy for the food web, and enhances soil fertility. However, human activities that disrupt the carbon balance in these ecosystems can have detrimental effects on their stability and overall health. Therefore, it is essential to conserve and restore savannah ecosystems to preserve their carbon storage capacity and ensure long-term stability.

Q: Can carbon in barbecue cause cancer? Can carbonated food cause cancer?: At the same time, there is another carcinogen in the barbecue food - nitrosamines.Why not eat barbecue food, mainly because of its high fat content, not health, but also not easy to digest, in addition, because the stall in the barbecue grill to add spices and other things, therefore, the body fat intake will cause degeneration in vivo, which leads to the occurrence of cancer.

Q: How does carbon impact the availability of clean drinking water?: Carbon can have a significant impact on the availability of clean drinking water through various processes. One of the major ways carbon affects water quality is through the process of carbon dioxide (CO2) emissions and subsequent acid rain formation. When CO2 combines with water in the atmosphere, it forms carbonic acid, which can be very damaging to water bodies. Acid rain, which is primarily caused by the release of carbon emissions from industrial activities and burning fossil fuels, can have devastating effects on freshwater sources. It can lower the pH level of lakes, rivers, and groundwater, making the water more acidic. This increased acidity can harm aquatic life, destroy ecosystems, and render water sources unsuitable for drinking, agriculture, or industrial use. Additionally, carbon can impact the availability of clean drinking water through its role in climate change. Excessive carbon emissions contribute to the greenhouse effect, leading to rising global temperatures and altering weather patterns. These changes can result in prolonged droughts and intense rainfall events, both of which can negatively affect water availability and quality. Droughts caused by climate change can lead to water scarcity, as precipitation patterns become less predictable and water sources dry up. This can lead to conflicts over limited water resources and force communities to rely on contaminated or unsafe water sources. On the other hand, intense rainfall events caused by climate change can result in flooding, which can overwhelm sewage systems and contaminate drinking water with pollutants and pathogens. Moreover, carbon emissions are associated with the degradation of natural ecosystems, including forests and wetlands, which play a crucial role in water purification. Forests act as natural filters, absorbing carbon dioxide and releasing oxygen, while wetlands naturally filter and cleanse water. When these ecosystems are destroyed or degraded due to deforestation or drainage, the availability of clean drinking water is further compromised. In conclusion, carbon emissions have a significant impact on the availability of clean drinking water. Acid rain formation due to carbon dioxide emissions and climate change-induced droughts and floods can all contribute to water scarcity and contamination. Protecting and reducing carbon emissions is vital to ensuring the availability of clean drinking water for present and future generations.

Send your message to us

*Email

*TEL

*Quantity

*Unit