• Calcined Pitch Coke with size 0-10mm 90%min System 1
  • Calcined Pitch Coke with size 0-10mm 90%min System 2
Calcined Pitch Coke with size 0-10mm 90%min

Calcined Pitch Coke with size 0-10mm 90%min

Ref Price:
get latest price
Loading Port:
Tianjin
Payment Terms:
TT OR LC
Min Order Qty:
21 m.t.
Supply Capability:
8000 m.t./month

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Introduction

Pitch Coke/Coal Tar Pitch is a kind of black brittleness and blocky piece, lustrously at normal temperature. It has special odour and poisonous and can be easily flame when melting, second-grade inflammable solid.

 Pitch Coke/Coal Tar Pitch is obtained from powerfully processed coal tar. Compared to petroleum asphalt, the adhesiveness is better. Coal Tar Pitch is high quality tar production with high fixed carbon. It has excellent adhesion, waterproofing and resistance against seawater, oil and various chemicals. In these properties, it is much better than petroleum asphalt tar. 

It can be used to produce painting, electrode, pitch coke, and tar felt. It also can be used as fuel and the raw material of asphalt carbon black.

 

Features:

The morphology, chemistry and crystallinity of recarburisers  have a major impact on the overall casting cost. The combined application and cost benefits, which are derived through the use of Desulco, enable foundries to manufacture castings in a highly cost effective manner.

 

reduces
 Recarburiser consumption
 Power consumption
 Inoculant consumption
 MgFeSi consumption
 Furnace refractory wear
 Scrap rate
 Tap to tap time
 Slag inclusions risk
 Chill

 

 increases
 Casting microstructure
 Productivity
 Process consistency

 

Carbon Recovery
Compared with calcined petroleum coke, acetylene coke and

graphite electrode scrap, Desulco yields the highest carbon

recovery and fastest dissolution time

Specifications:

Products

CPC

F.C.%

98.5MIN 

98.5MIN 

98MIN 

ASH %

0.8MAX

0.8MAX

1MAX

V.M.%

0.7 MAX

0.7 MAX

1 MAX

SULFUR %

0. 5MAX

0. 7MAX

1MAX

MOISTURE %

0.5MAX

0.5MAX

1MAX

 

Pictures:

 

Calcined Pitch Coke with size 0-10mm 90%min

Calcined Pitch Coke with size 0-10mm 90%min

Calcined Pitch Coke with size 0-10mm 90%min

Calcined Pitch Coke with size 0-10mm 90%min

 

 

FAQ:

 

1.MOQ:2 Containers

2.Size:1-3mm,1-5mm,2-6mm,3-5mm and as the customer's requirement

3.Packing: 1 ton jumbo bag or 25kgs paper in bag

4.Payment:T/T or L/C at sight

5.Delivery time: within 15 days after receiving the deposit

6.Usage: it is as carbon raiser,widely used in steelmaking,casting,casting iron,steel foundry,aluminum metallury. 

 

 

Q:What is carbon black ink?
Carbon black ink is a type of ink that is made by dispersing carbon black pigment in a liquid medium. It is commonly used in printing and writing applications due to its deep black color and high opacity.
Q:What are the uses of carbon black?
Carbon black has a wide range of uses across various industries due to its unique properties. One of the primary uses of carbon black is as a reinforcing filler in rubber materials. It improves the strength, durability, and resistance to wear and tear of rubber products, making them suitable for applications such as tires, conveyor belts, gaskets, hoses, and shoe soles. Carbon black is also used as a pigment in inks, coatings, and dyes. Its high tinting strength and ability to absorb ultraviolet light make it an excellent choice for coloring plastics, paints, and printing inks. Additionally, carbon black is used in toners for photocopiers and laser printers, providing the dark color required for high-quality printing. Furthermore, carbon black finds applications in the manufacturing of electrodes for batteries and fuel cells. Its electrical conductivity and high surface area make it an ideal material for enhancing the performance and efficiency of energy storage devices. Carbon black is also used in the production of carbon brushes, which are crucial components in electric motors and generators. In the construction industry, carbon black is utilized as a filler in concrete and asphalt to enhance their strength and durability. It improves the resistance to weathering, reduces cracking, and increases the lifespan of these materials. Additionally, carbon black is employed in the production of conductive polymers used for static dissipation and electromagnetic shielding in various construction materials. In summary, the uses of carbon black are diverse and span across multiple industries. From reinforcing rubber products to coloring inks and coatings, enhancing energy storage devices, and improving the strength of construction materials, carbon black plays a vital role in enhancing the performance and durability of various products.
Q:The dangers of grilled BBQ on humansWhat are the dangers of a charcoal barbecue?
This study shows that burnt meat also has an effect on the human body, although the amount of conversion quantity and the human animal, was about 1/20000, the ratio is very low, but also can avoid the best to avoid as far as possible, especially in old age people.In fact, the biggest problem is not barbecue food, but added to food oil juice, sauce, the oil dripping on the charcoal, heating will produce carcinogenic substances, attached to the barbecue, grilled Dried tofu, grilled corn, fish and so on were eaten roasted in the human body, long-term consumption down, have a higher risk of cancer some. In addition, the flame will make protein to produce chemical changes into highly toxic carcinogenic substances called heterocyclic amines (Heterocyclic amine), often eat these substances, easily lead to the occurrence of cancer.
Q:How is carbon used in the production of carbon fiber?
Carbon is a crucial component in the production of carbon fiber. Carbon fibers are made by subjecting a precursor material, usually a type of polymer such as polyacrylonitrile (PAN) or rayon, to a series of heating and chemical treatments. The precursor material is first heated to a high temperature in the absence of oxygen, a process known as carbonization. During this stage, the precursor undergoes pyrolysis, which breaks down the molecular structure and removes non-carbon elements like hydrogen, oxygen, and nitrogen. After carbonization, the resulting material is a carbon-rich structure known as a carbonized fiber or char. However, the material is still not considered carbon fiber at this point. To transform the char into carbon fibers, it undergoes further processing steps called stabilization and graphitization. During stabilization, the char is heated in the presence of oxygen, which leads to the formation of cross-linked structures. This step helps to improve the fiber's thermal stability and prevents it from shrinking or deforming during subsequent processing. The stabilized material is then heated to a higher temperature in an inert atmosphere during graphitization. This process aligns the carbon atoms within the fiber, creating a highly ordered and crystalline structure. Throughout this entire process, carbon is the main building block of the resulting carbon fiber. Starting from the precursor material, which contains carbon atoms, the carbonization and graphitization steps remove impurities and rearrange the carbon atoms to form a strong and lightweight fiber. The resulting carbon fiber exhibits exceptional properties such as high strength-to-weight ratio, stiffness, and resistance to heat and chemicals, making it a valuable material in various industries, including aerospace, automotive, and sporting goods.
Q:What is carbon offsetting in the energy sector?
The energy sector engages in carbon offsetting by compensating for the greenhouse gas emissions generated from energy generation and consumption activities. This practice involves investing in projects that reduce or eliminate carbon dioxide (CO2) and other greenhouse gas emissions from the atmosphere. The main objective is to achieve a balance between the emissions released and the emissions reduced. Greenhouse gas emissions from the energy sector, particularly from the burning of fossil fuels like coal, oil, and natural gas, contribute significantly to global emissions. Carbon offsetting in this sector aims to mitigate the environmental impact of these emissions by financing projects that promote renewable energy, energy efficiency, and other measures to reduce carbon. There are various types of projects that can be supported through carbon offsetting in the energy sector. For instance, investments can be made in renewable energy projects such as wind farms, solar power plants, or hydropower facilities. These projects generate clean energy without emitting greenhouse gases and help replace fossil fuel-based energy sources, thus reducing overall emissions. Moreover, carbon offsetting can also support energy efficiency projects. These initiatives focus on reducing energy consumption by implementing energy-efficient technologies, improving insulation, or optimizing industrial processes. By reducing energy demand, these projects indirectly contribute to lower greenhouse gas emissions. Additionally, carbon offsetting in the energy sector can involve supporting initiatives that remove carbon dioxide from the atmosphere. These projects often include reforestation or afforestation efforts, which involve planting trees or restoring degraded forests. Trees absorb and store carbon dioxide through photosynthesis, thus offsetting emissions and combating climate change. In summary, carbon offsetting in the energy sector is crucial for transitioning towards a sustainable and low-carbon future. By investing in projects that reduce or eliminate greenhouse gas emissions, individuals, organizations, and governments can take responsibility for their carbon footprint and contribute to global efforts in addressing climate change.
Q:What are the impacts of carbon emissions on glacier retreat?
The impacts of carbon emissions on glacier retreat are significant and alarming. As carbon dioxide and other greenhouse gases are released into the atmosphere, they trap heat and contribute to global warming. This rise in temperature directly affects glaciers by accelerating their melting and retreat. Glaciers act as natural reservoirs of freshwater, and their retreat has severe consequences for water availability, ecosystems, and human populations that depend on them. Additionally, the melting of glaciers contributes to rising sea levels, which poses a threat to coastal communities. Overall, carbon emissions play a major role in driving glacier retreat and exacerbating the impacts of climate change.
Q:How does carbon dating work?
Carbon dating is a scientific technique used to determine the age of organic materials, such as plants, animals, and human remains. It relies on the fact that carbon-14, a radioactive isotope of carbon, is constantly formed in the atmosphere by cosmic rays. While carbon-14 is present in the atmosphere, it is also absorbed by living organisms through photosynthesis or consumption of other organisms. The ratio of carbon-14 to stable carbon isotopes (carbon-12 and carbon-13) in the atmosphere remains relatively constant, as living organisms maintain a constant level of carbon-14 by exchanging it with the atmosphere through respiration or consumption. However, when an organism dies, it no longer takes in carbon-14, and the existing carbon-14 begins to decay at a predictable rate. Carbon-14 has a half-life of approximately 5,730 years, meaning that after this time, half of the carbon-14 in a sample will have decayed into nitrogen-14. By measuring the remaining carbon-14 in a sample, scientists can calculate how long it has been since the organism died. The process of carbon dating involves several steps. First, a sample is collected from the organic material to be dated, which can be anything from wood to bones to textiles. The sample is then prepared for analysis by removing any contaminants and converting it into a form suitable for measurement. Next, the sample is exposed to a high-energy radiation source, such as a particle accelerator or a nuclear reactor, which causes the carbon atoms in the sample to release small bursts of energy known as beta particles. These particles are detected and measured by sensitive instruments, allowing scientists to determine the amount of carbon-14 remaining in the sample. Finally, this information is used to calculate the age of the organic material. By comparing the ratio of carbon-14 to carbon-12 in the sample to the known ratio in the atmosphere, scientists can estimate the time elapsed since the organism died. Carbon dating is an invaluable tool for archaeologists, paleontologists, and geologists, as it allows them to accurately determine the ages of ancient artifacts, fossils, and geological formations. It has revolutionized our understanding of human history and the natural world, providing us with invaluable insights into the past.
Q:How is carbon used in the production of filters?
Carbon is used in the production of filters due to its highly porous nature and ability to adsorb impurities. It acts as a powerful adsorbent, attracting and trapping contaminants such as chemicals, odors, and particles from air or water. This makes carbon an excellent material for removing impurities and improving the quality of filtered products.
Q:How is carbon used in the production of lubricants?
Carbon is used in the production of lubricants as it forms the base of many lubricant formulations. Carbon compounds, such as hydrocarbons, are used as the primary ingredient in lubricants to provide lubricating properties. These compounds help reduce friction and wear between moving parts, thus improving the efficiency and lifespan of machinery and equipment.
Q:How does carbon affect the ozone layer?
Carbon does not directly affect the ozone layer. However, certain carbon compounds, such as chlorofluorocarbons (CFCs) and hydrochlorofluorocarbons (HCFCs), can indirectly contribute to the depletion of the ozone layer. These compounds contain chlorine and bromine atoms, which are released into the atmosphere when the compounds are broken down by sunlight. Once in the atmosphere, chlorine and bromine atoms can catalytically destroy ozone molecules, leading to a thinning of the ozone layer. When a chlorine or bromine atom comes into contact with an ozone molecule, it reacts with it, breaking it apart and forming a chlorine or bromine oxide molecule and a regular oxygen molecule. The chlorine or bromine oxide molecule can then react with another ozone molecule, continuing the cycle and depleting the ozone layer. While carbon itself does not directly contribute to ozone depletion, the production and release of carbon compounds like CFCs and HCFCs result from human activities. These compounds were widely used in various industries, such as refrigeration, air conditioning, and aerosol propellants, until it was discovered that they were harmful to the ozone layer. The Montreal Protocol, an international treaty signed in 1987, aimed to phase out the production and use of these ozone-depleting substances. Reducing carbon emissions, however, is crucial in addressing another environmental concern – climate change. High levels of carbon dioxide and other greenhouse gases in the atmosphere trap heat, leading to global warming. This poses various threats to ecosystems and human societies. By transitioning to cleaner and more sustainable energy sources and implementing measures to reduce carbon emissions, we can tackle both ozone depletion and climate change, safeguarding the health of our planet.

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