• Foundry Coke with Sulphur 0.8% max in bigger size System 1
  • Foundry Coke with Sulphur 0.8% max in bigger size System 2
Foundry Coke with Sulphur 0.8% max in bigger size

Foundry Coke with Sulphur 0.8% max in bigger size

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Loading Port:
Shekou
Payment Terms:
TT OR LC
Min Order Qty:
21.2
Supply Capability:
1012 m.t./month

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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 proud to serve 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-120mm80-150100-150mm, 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 with Sulphur 0.8% max in bigger size

Foundry Coke with Sulphur 0.8% max in bigger size

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 effects of carbon emissions on the stability of grasslands?
Carbon emissions have a significant impact on the stability of grasslands. One of the main effects is the alteration of the climate, specifically through the greenhouse effect. Carbon dioxide (CO2) is a major greenhouse gas, and the increased concentration of CO2 in the atmosphere leads to global warming. This rise in temperature affects grasslands by altering their natural growth patterns and disrupting the delicate balance of their ecosystems. Higher temperatures caused by carbon emissions can lead to increased evaporation rates, resulting in drier soil conditions. Grasslands are adapted to specific moisture levels, and any changes in these conditions can lead to reduced plant growth and increased susceptibility to drought. As a consequence, grasslands become less stable and more prone to desertification. Moreover, elevated levels of carbon dioxide can affect the nutritional quality of grasses. As CO2 concentrations increase, the relative proportion of essential nutrients in grasses may decrease. This phenomenon, known as nutrient dilution, can impact the health and productivity of herbivores that rely on these grasslands for sustenance. The decline in nutritional value can disrupt the delicate balance of predator-prey relationships and lead to a decline in biodiversity. Additionally, carbon emissions contribute to the acidification of soils. Increased carbon dioxide dissolves in rainwater, forming carbonic acid, which lowers the pH of the soil. Grasses are sensitive to changes in soil pH, and acidification can negatively affect their growth and nutrient uptake. Acidic soil conditions can also lead to the loss of important microorganisms that contribute to a healthy soil ecosystem, further destabilizing grasslands. Lastly, carbon emissions have indirect effects on grasslands through climate change-induced alterations in precipitation patterns. Changes in rainfall patterns can lead to shifts in plant composition and distribution, favoring invasive species or altering the competitive balance between different grass species. This can disrupt the stability and functioning of grassland ecosystems. In conclusion, carbon emissions have numerous detrimental effects on the stability of grasslands. These include changes in climate, increased vulnerability to drought, nutrient dilution, soil acidification, and alterations in precipitation patterns. It is crucial to reduce carbon emissions and mitigate the impacts of climate change to preserve the stability and integrity of grassland ecosystems.
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:What are the different allotropes of carbon?
There are several different allotropes of carbon, each with its own unique physical and chemical properties. The most well-known allotrope of carbon is diamond, which is known for its hardness and brilliance. Diamond is made up of a three-dimensional arrangement of carbon atoms, each bonded to four neighboring carbon atoms in a tetrahedral structure. Another allotrope of carbon is graphite, which is known for its softness and ability to conduct electricity. In graphite, carbon atoms are arranged in layers that are held together by weak forces, allowing the layers to slide over each other easily. This layered structure gives graphite its lubricating properties. Fullerenes are another class of carbon allotropes, which are made up of carbon atoms arranged in closed cage-like structures. The most well-known fullerene is buckminsterfullerene (C60), which consists of 60 carbon atoms bonded together to form a hollow sphere resembling a soccer ball. Fullerenes have unique properties such as high tensile strength and the ability to act as superconductors. Carbon nanotubes are another allotrope of carbon, which are cylindrical structures made up of rolled-up graphene sheets. Carbon nanotubes can have different structures and properties depending on the arrangement of carbon atoms. They are known for their exceptional strength, electrical conductivity, and thermal conductivity. Amorphous carbon is another carbon allotrope, which does not have a definite crystal structure. It is often found in substances like soot, coal, and charcoal. Amorphous carbon can have a wide range of properties depending on its structure, ranging from soft and powdery to hard and brittle. These are just a few examples of the different allotropes of carbon. The ability of carbon to form various allotropes with vastly different properties contributes to its importance in a wide range of applications, including jewelry, electronics, and material science.
Q:How does carbon affect the pH of rainwater?
The pH of rainwater can be influenced by carbon, which occurs when carbon dioxide (CO2) in the atmosphere dissolves in rainwater. This process is known as the formation of carbonic acid (H2CO3). As a result of this reaction, the pH of rainwater decreases, making it more acidic. The carbonic acid breaks down into hydrogen ions (H+) and bicarbonate ions (HCO3-), which further contribute to the acidity of rainwater. Consequently, higher levels of carbon dioxide in the atmosphere, such as those caused by human activities like the combustion of fossil fuels, can result in an increase in the formation of carbonic acid and subsequently lower the pH of rainwater, leading to the occurrence of acid rain.
Q:How does carbon occur in nature?
Various forms of carbon occur naturally in nature and it is one of the most abundant elements on Earth. It can be found in the atmosphere, the Earth's crust, and living organisms. In the atmosphere, carbon primarily exists as carbon dioxide (CO2), which is produced through natural processes like respiration, volcanic activity, and the decay of organic matter. Plants absorb this CO2 during photosynthesis to generate energy and release oxygen. Carbon is also present in other greenhouse gases like methane (CH4), which is produced by natural processes such as the decomposition of organic matter in wetlands and the digestive processes of certain animals. In the Earth's crust, carbon is present in various minerals like limestone, dolomite, and graphite. These minerals form over millions of years through the accumulation of marine organisms, such as shells and skeletons. Carbon is also a vital component of fossil fuels like coal, oil, and natural gas, which are formed from the remains of ancient plants and animals subjected to high pressure and temperature over time. Additionally, carbon is an essential element for all living organisms and serves as the foundation of organic chemistry. It is the primary component of organic matter, including carbohydrates, proteins, lipids, and nucleic acids, which are the building blocks of life. Through processes like photosynthesis, respiration, and decomposition, carbon cycles continuously within ecosystems. In conclusion, carbon occurs naturally in different forms in the environment and plays a critical role in the Earth's climate system, geological processes, and the sustenance of life.
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:What are the consequences of increased carbon emissions on coastal regions?
Coastal regions are significantly impacted by the increase in carbon emissions, with various alarming consequences. One particularly concerning effect is the rise in sea levels, which is caused by the melting of glaciers and polar ice caps due to the warming of the planet. This rise in sea levels poses threats such as increased flooding, erosion, and the loss of coastal ecosystems. Aside from the rise in sea levels, increased carbon emissions also contribute to ocean acidification. When seawater absorbs carbon dioxide, it forms carbonic acid, which lowers the pH of the ocean. This decrease in pH has harmful effects on marine life, especially on coral reefs and shellfish. The acidity of the waters makes it difficult for coral reefs to construct their calcium carbonate structures, leading to bleaching and eventual death. Similarly, shellfish like oysters, clams, and mussels struggle to develop their shells in more acidic waters, impacting their survival and the entire coastal food chain. Moreover, higher levels of carbon emissions contribute to the intensification of storms and extreme weather events. Rising temperatures in coastal regions result in more frequent and severe hurricanes, cyclones, and storm surges. These events cause extensive damage to coastal infrastructure, including homes, businesses, roads, and power lines. The increased frequency of storms also puts coastal communities at a higher risk of displacement and loss of livelihoods. Furthermore, increased carbon emissions contribute to global warming, which leads to higher air temperatures. The warming of coastal regions has adverse effects on the overall ecosystem. For example, warmer waters can cause certain species to migrate or become extinct, disrupting the delicate balance of coastal ecosystems. It can also impact the health and productivity of fisheries, affecting the livelihoods of fishing-dependent communities. To summarize, increased carbon emissions have wide-ranging consequences for coastal regions. Rising sea levels, ocean acidification, intensified storms, and the overall warming of coastal ecosystems pose significant threats to the environment, economies, and communities in these areas. It is crucial to reduce carbon emissions and take proactive measures to mitigate these consequences and protect our coastal regions for future generations.
Q:What is the role of carbon in photosynthesis?
The essential role of carbon in photosynthesis cannot be overstated. Carbon dioxide, a primary reactant in the photosynthesis process, combines with water and sunlight energy to produce glucose, which serves as the main source of energy for plant growth and development. To enter the leaf, carbon dioxide utilizes tiny pores known as stomata, diffusing into the chloroplasts where photosynthesis occurs. Within the chloroplasts, carbon dioxide interacts with water, sunlight, and chlorophyll, resulting in a series of chemical reactions called the Calvin cycle or dark reactions. During this cycle, glucose is synthesized and stored as a vital energy source for plants. The carbon atoms in carbon dioxide act as the foundation for glucose and other organic compounds produced during photosynthesis. Through a complex sequence of enzymatic reactions, carbon dioxide is transformed into carbohydrates, lipids, proteins, and nucleic acids, all of which are necessary for plant growth and survival. Moreover, photosynthesis plays a significant role in the global carbon cycle, not only producing glucose but also regulating the levels of carbon dioxide in the atmosphere and releasing oxygen as a byproduct. This process helps mitigate climate change and maintains the necessary balance of oxygen for all living organisms. In essence, carbon's role in photosynthesis is pivotal, serving as the raw material for glucose synthesis and other organic compounds. Through this process, plants convert carbon dioxide into energy-rich molecules, contributing to their survival, growth, and the overall equilibrium of carbon in the Earth's atmosphere.
Q:What are the consequences of increased carbon emissions on coral reefs?
Increased carbon emissions have severe consequences on coral reefs. One of the major impacts is ocean acidification, which occurs when excess carbon dioxide is absorbed by seawater, leading to a decrease in pH levels. This acidification inhibits the ability of corals to build their calcium carbonate skeletons, making them more vulnerable to erosion and breaking. Additionally, higher levels of carbon dioxide in the atmosphere contribute to global warming, resulting in rising ocean temperatures. This leads to coral bleaching, a phenomenon in which corals expel the symbiotic algae that give them their vibrant colors. Without these algae, corals become stressed, lose their color, and are more susceptible to disease and death. Furthermore, increased carbon emissions contribute to changes in ocean currents and weather patterns, leading to more frequent and intense storms. These storms can physically damage coral reefs, causing further destruction to already vulnerable ecosystems. The consequences of increased carbon emissions on coral reefs are far-reaching and devastating. The decline of coral reefs not only affects the biodiversity of the oceans but also has significant implications for human populations that depend on reefs for food, income, coastal protection, and tourism. It is crucial to reduce carbon emissions and take immediate action to protect and preserve these invaluable ecosystems.
Q:How does carbon impact the migration patterns of animals?
The migration patterns of animals are significantly influenced by carbon emissions and climate change. The increased release of carbon dioxide into the atmosphere causes global warming, which in turn changes the timing and availability of vital resources necessary for migration, such as food and water. One visible effect of carbon emissions on animal migration is the modification of seasonal patterns. As the climate warms, the timing of seasons shifts, impacting the accessibility of food sources that animals depend on during migration. For example, an earlier arrival of spring can lead to a mismatch between the timing of migration and the availability of food, resulting in negative consequences for the survival and reproduction of migratory species. Moreover, climate change, caused by carbon emissions, has an impact on the habitats and ecosystems that animals rely on during migration. Increasing temperatures and changing precipitation patterns can result in the loss or deterioration of crucial habitats, such as wetlands or coastal areas, which serve as stopping points or breeding grounds for migratory animals. This loss of habitat disrupts migration routes and causes changes in the distribution and abundance of species. Additionally, carbon emissions contribute to the acidification of oceans, which has severe consequences for migratory species that depend on marine ecosystems. Acidification affects the availability of food and hampers the reproductive success of marine species, leading to changes in migration patterns and population dynamics. In summary, the impact of carbon emissions on animal migration patterns is intricate and diverse. It disrupts the delicate balance of ecosystems by 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 preserve the integrity of their habitats.

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