• Calcined Petroleum Coke as Injection Coke for Steel Industry System 1
  • Calcined Petroleum Coke as Injection Coke for Steel Industry System 2
Calcined Petroleum Coke as Injection Coke for Steel Industry

Calcined Petroleum Coke as Injection Coke for Steel Industry

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Loading Port:
Qingdao
Payment Terms:
TT OR LC
Min Order Qty:
20.2
Supply Capability:
1012 m.t./month

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 Intrduction

Carbon additive to ningxia production of anthracite as raw material, after washing, crushing, high temperature calcination, filter, etc. Craft refined and become.This is after the anthracite calcination generated high carbon content and low volatile component of the new product, is an ideal raw material to make steel.

 Calcined Petroleum Coke comes from delayed coke which extracted from oil refinery. Although Calcined Petroleum Coke contains a little bit higher level of sulfur and nitrogen than pitch coke, the price advantage still makes it widely used during steel-making and founding as a kind of carbon additive/carburant.

 

Features
In the smelting process for reducing agent. Performance: replace the traditional oil carbon additive, decrease the cost of steelmaking. Features: low ash. low sulfur,low phosphorus, high calorific value. High ratio resistance,high mechanical strength,high chemistry activity. It is mainly used for metallurgy reductant inoculants, casting, refractory materials, machinery, electronics and other fields.Good quality

 

1) high absorption rate, it can be absorbed up to 90%.
2) absorbed more quickly than other carbon additive; no residue remains in furnace.
3) low Sulfur, the lowest can reach below 0.20%; low nitrogen, normally below 200ppm (0.02%)

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 Petroleum Coke as Injection Coke for Steel Industry

Calcined Petroleum Coke as Injection Coke for Steel Industry

Calcined Petroleum Coke as Injection Coke for Steel Industry

Calcined Petroleum Coke as Injection Coke for Steel Industry

 

FAQ:

(1)CPC could be as fuel 

 

Petroleum coke is a material relatively low in cost and high in heat value and carbon content with good chemical stability, making it an efficient and costeffective fuel for producing metal, brick and related products. 

 

(2)CPC could be as Graphite Electrodes

 

Graphite can be produced from lowsulfur needle petroleum coke, which must be heated above 5,432 degrees Fahrenheit. 

 

(3)CPC could be as Anodes

 

Calcined petroleum coke, often low in sulfur and metallic impurities, is used to make anodes for 

 

the smelting industry.Calcined petroleum coke is mixed with coal tar pitch in the production of 

 

anodes. 

 

 

Q:How do you remove car carbon?
3, running high speed can flush carbon deposition? Running high speed, you can really use the airflow on the airway erosion, wash away part of the carbon deposition. So, if you happen to go out, there are high-speed, national road two choices, you may choose to pull back to speed. But, Ma director thinks, if be in order to "flush carbon deposit" specially, want to run high speed, do not have this necessity. "It is a waste of time, and the cost of oil, extra high speed tolls, the effect is better to do a maintenance 4S shop!" 4, improve the shift speed, such as the original speed 2000rpm shift, modified 2500rpm conversion, generated can prevent carbon deposition, but also to protect the engine? Ma director said, low speed the shift, is often said that the "drag block", the car is easy to knock, the combustion of gasoline is not sufficient to carbon deposition. But it's not necessary for people to increase gear speed - that will increase fuel consumption and cause premature wear of clutch friction plates. So, manual transmission of the car, 1.6 ~ 2.0L displacement, about 2000 rpm shift is more economical, and no need to improve; and automatic car, pay attention not to slam the gas.
Q:What are the consequences of increased carbon emissions on cultural heritage sites?
Increased carbon emissions can have severe consequences on cultural heritage sites. The most immediate impact is climate change, which leads to rising sea levels, more frequent and intense natural disasters, and changes in temperature and precipitation patterns. These changes can directly damage or destroy cultural heritage sites, including archaeological sites, historic buildings, and monuments. Additionally, increased carbon emissions contribute to air pollution, leading to acid rain and atmospheric pollutants that can erode and deteriorate cultural artifacts. Furthermore, climate change can disrupt local communities and economies that depend on these heritage sites for tourism, resulting in a loss of cultural identity and economic decline. Overall, the consequences of increased carbon emissions on cultural heritage sites are both tangible and intangible, threatening our shared history and cultural diversity.
Q:What are the uses of carbon black?
Due to its unique properties, carbon black finds wide-ranging applications in various industries. One of its primary uses is as a reinforcing filler in rubber materials, enhancing their strength, durability, and resistance to wear and tear. This makes them suitable for various applications, including tires, conveyor belts, gaskets, hoses, and shoe soles. Moreover, carbon black serves 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, it is employed in toners for photocopiers and laser printers, ensuring high-quality printing with its dark color. Furthermore, carbon black is valuable in the manufacturing of electrodes for batteries and fuel cells. Its electrical conductivity and large surface area enhance the performance and efficiency of energy storage devices. Additionally, it is used in the production of carbon brushes, crucial components in electric motors and generators. In the construction industry, carbon black acts as a filler in concrete and asphalt, improving their strength, durability, and resistance to weathering. It reduces cracking and extends the lifespan of these materials. Additionally, it is utilized in the production of conductive polymers, which aid in static dissipation and electromagnetic shielding in various construction materials. In conclusion, carbon black has diverse applications across multiple industries. Whether it is reinforcing rubber, coloring inks and coatings, enhancing energy storage devices, or strengthening construction materials, carbon black plays a vital role in improving the performance and durability of various products.
Q:What are the impacts of carbon emissions on urban environments?
Carbon emissions have significant impacts on urban environments. One of the most notable effects is air pollution. The release of carbon dioxide and other greenhouse gases from vehicles, factories, and power plants contributes to the formation of smog and harmful particulate matter in cities. This pollution poses serious health risks to residents, particularly those with respiratory conditions, and can lead to increased hospital admissions and premature deaths. Furthermore, carbon emissions contribute to climate change, which has wide-ranging consequences for urban areas. Rising temperatures and changing weather patterns can intensify heatwaves, leading to heat-related illnesses and deaths. Increased frequency and severity of extreme weather events, such as hurricanes and floods, can cause significant infrastructure damage and disrupt essential services like water supply and transportation. Urban areas also face the threat of rising sea levels due to carbon emissions. Coastal cities are particularly vulnerable to flooding and erosion as the melting of polar ice caps and thermal expansion of seawater continue. This can result in the loss of valuable land, displacement of populations, and damage to critical infrastructure, including buildings, roads, and sewage systems. Carbon emissions also contribute to the urban heat island effect, wherein cities experience higher temperatures compared to surrounding rural areas. This is due to the absorption and retention of heat by concrete, asphalt, and other urban materials. The urban heat island effect can exacerbate the health risks associated with heatwaves and increase energy demands for cooling, further contributing to carbon emissions. Finally, carbon emissions have economic impacts on urban environments. The costs of mitigating and adapting to the effects of climate change, such as implementing climate-resilient infrastructure and disaster response measures, can be significant. Additionally, the health consequences of air pollution and extreme weather events can lead to increased healthcare costs and productivity losses. To mitigate these impacts, efforts should be made to reduce carbon emissions through transitioning to cleaner energy sources, promoting sustainable transportation options, and implementing energy-efficient practices in buildings. Urban planning and design should also prioritize green spaces, tree planting, and the use of reflective and permeable materials to combat the urban heat island effect. By addressing carbon emissions in urban environments, we can create healthier, more resilient cities for both current and future generations.
Q:How does carbon affect the migration patterns of birds?
Carbon emissions and the resultant climate change have a significant impact on the migration patterns of birds. The increase in carbon dioxide levels in the atmosphere leads to global warming, which affects various environmental factors such as temperature, precipitation, and vegetation growth. These changes directly influence the availability of food, water, and suitable habitats for birds during their migratory journeys. One of the key ways carbon affects bird migration is by altering the timing and duration of seasonal events. For instance, warmer temperatures can cause plants to bloom earlier or delay their growth, disrupting the synchronized timing of flowering and the arrival of insects. This can have serious consequences for birds that rely on these resources for food during their migration. If birds arrive at their breeding grounds or stopover sites and find a lack of food, it can lead to decreased survival rates, reduced reproductive success, and overall population decline. Additionally, changes in precipitation patterns due to carbon emissions can affect the availability of water sources along migration routes. Birds rely on these water bodies for drinking and bathing, especially during long flights. If these water sources dry up or become scarce, it can force birds to alter their flight paths, search for alternative water sources, or even risk dehydration. Furthermore, carbon-induced changes in vegetation cover can impact the availability of suitable habitats for birds. As temperatures rise, some bird species may face challenges in finding suitable breeding or nesting sites. Forest-dwelling birds, for example, may experience habitat loss as forests are degraded or replaced by drier ecosystems. This can disrupt their migratory patterns and potentially lead to population declines or range shifts. Overall, the impact of carbon emissions on bird migration patterns is complex and multifaceted. As climate change continues to unfold, it is crucial to mitigate carbon emissions and implement conservation measures to ensure the survival and well-being of migratory bird populations. Protecting crucial stopover sites, promoting habitat restoration, and raising awareness about the consequences of carbon emissions can all contribute to preserving the intricate and vital phenomenon of bird migration.
Q:How is carbon formed in stars?
Carbon is formed in stars through a process known as nuclear fusion. In the core of a star, hydrogen atoms undergo a series of fusion reactions, ultimately fusing together to form helium. This process releases a tremendous amount of energy and is responsible for the heat and light that stars emit. As the core of a star continues to heat up and the pressure increases, helium atoms start fusing together to form heavier elements. At some point, three helium nuclei can combine to form a carbon nucleus. This process, known as the triple alpha process, requires very specific conditions, including a high enough temperature and pressure, for it to occur. The triple alpha process relies on the fact that carbon-12 has a very specific energy level that allows three helium nuclei to come together and form a stable carbon nucleus. This is because the energy level of carbon-12 aligns perfectly with the energy levels of helium nuclei, allowing them to overcome the electrostatic repulsion and fuse together. Once carbon is formed in the core of a star, it can continue to undergo fusion reactions to form even heavier elements, such as oxygen and nitrogen. These elements are crucial building blocks for the formation of planets, including our own Earth, as they are eventually expelled into space during a star's later stages of evolution.
Q:What is electrical carbon?
Carbon and graphite have the following characteristics:(1) it has good conductivity and thermal conductivity.2. It has excellent properties of high temperature resistance, can work at 3000 degrees under anaerobic condition, and has good mechanical strength and thermal shock resistance at high temperature.(3) good chemical stability, not adhesion to liquid metal at high temperature, only with strong oxidant.(4) graphite has good self lubrication characteristics.The electricity production process is as follows: firstly, the carbon powder and adhesive agent he mixed pressed carbon matrix material. And then send the person inside the furnace and high temperature sintering, the final form of electrical carbon products.
Q:What are the different methods of measuring carbon dioxide levels in the atmosphere?
There are several methods used to measure carbon dioxide levels in the atmosphere. These methods include direct measurement, remote sensing, and ice core analysis. Direct measurement is the most accurate and widely used method. It involves taking air samples from various locations around the world and analyzing them using gas analyzers. These analyzers can measure the concentration of carbon dioxide in the air, usually expressed in parts per million (ppm). Remote sensing is another method used to measure carbon dioxide levels. It involves using satellite-based instruments to observe and measure the amount of carbon dioxide in the Earth's atmosphere. These instruments can detect the absorption and scattering of sunlight by carbon dioxide molecules, providing valuable data on its concentration. Ice core analysis is a historical method of measuring carbon dioxide levels. Scientists drill deep into ice sheets in polar regions and extract ice cores. These ice cores contain trapped air bubbles from hundreds or thousands of years ago. By analyzing the carbon dioxide content in these bubbles, scientists can reconstruct past atmospheric carbon dioxide levels and compare them to present-day levels. Each of these methods has its advantages and limitations. Direct measurement provides real-time data and precise measurements, but it requires a vast network of monitoring stations worldwide. Remote sensing offers a global perspective and can cover large areas, but it may have limitations in resolving fine-scale spatial variations. Ice core analysis provides valuable long-term historical data, but it is limited to specific regions and can only provide indirect measurements. Combining these methods allows scientists to gain a comprehensive understanding of carbon dioxide levels in the atmosphere, helping us monitor and assess the impact of human activities on climate change.
Q:How does carbon affect the fertility of soil?
Soil fertility relies on carbon, which has a significant impact on various soil properties and processes. The addition of carbon to the soil improves its structure and ability to hold water. Organic matter, abundant in carbon, serves as a food source for microorganisms. These microorganisms play a crucial role in nutrient cycling and soil aggregation as they break down organic matter into simpler compounds. This process releases essential nutrients that plants can readily access. Furthermore, carbon acts as a sponge, preventing the leaching of nutrients like nitrogen and thereby increasing their availability for plants. Additionally, soils rich in carbon have higher cation exchange capacity, enabling them to retain and release nutrients more efficiently. By maintaining and increasing soil carbon levels, we can enhance soil fertility, facilitate plant growth, and support sustainable agricultural practices.
Q:What is carbon neutral certification?
Carbon neutral certification is a recognition given to individuals, organizations, or products that have successfully reduced their carbon footprint to zero by balancing their greenhouse gas emissions with an equivalent amount of carbon offsets or renewable energy. It signifies a commitment to mitigating the negative environmental impact and contributing to a more sustainable future.

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