• Graphite Plate/CNBM Wholesale Carbon Graphite Plates System 1
  • Graphite Plate/CNBM Wholesale Carbon Graphite Plates System 2
  • Graphite Plate/CNBM Wholesale Carbon Graphite Plates System 3
Graphite Plate/CNBM Wholesale Carbon Graphite Plates

Graphite Plate/CNBM Wholesale Carbon Graphite Plates

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Loading Port:
China main port
Payment Terms:
TT OR LC
Min Order Qty:
0 m.t.
Supply Capability:
100000 m.t./month

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Packaging & Delivery

Packaging Details:standard export wooden package or according to customers' request
Delivery Detail:15-30days after receiving your deposit

Product Description

Graphite plate is made form the domestic petroleum coke and widely used in the metallurgy, machinery, electronics and chemical industry, etc. The graphite plate include molded, extruded, vibrated and isostatic. Our main and most preponderant graphite plate is molded formed. Our products own the following characteristics: low electricr esistance, good electric and thermal conductivity, high oxidation resistance, greater resistance to thermal and mechanical shock, high mechanical strength, high machining accuracy and so on.

 

Usage

They have been used extensively in industries like solar, foundry, chemicals, electronics, ferrous metals, high-temp, heat conduction, metallurgy, lubrication, anti-corrosion .etc

1. Refractory material: widely used in the metallurgical industry.

 

2. Conducting material: In the electronics industry, widely used for graphite electrode, brush,, etc

 

3. Wear-resisting material and lubricant: Use graphite as wear-resisting and lubrication materials, can be 100m/s speed sliding in - 200 ~ 2000 °C temperature range , no or less lubricanting oil.

 

4. Sealing material: it can be as sealing ring in the equipment, such as centrifugal pump, hydraulic turbine ,etc.

 

5. Anticorrosion material: Widely used in petroleum, chemical, hydrometallurgy departments.

 

6. Insulation, high temperature resistant, radiation protection materials

 

7.Molds:  hot pressing molds, static casting molds, centrifugal casting molds, pressure  casting molds, fused refractory molds, etc.

 

8. Furnace parts:  resistance heating elements, induction susceptors, structural elements and charging plates, furnace linings, heat shields and covers for pulling monocrystalline silicon or optical fibers, etc.

 

9. Anodes for the electrolysis of metals. As graphite elecerode plate and graphite anode plate .

 

10.. Parts for heat exchangers.

 

11. Mahince to Crucibles for melting and reduction. 

 Physical and chemical index

 

Item

Unit

Guarantee Value

Typical Value

Grain size

mm

0.8

0.8

Density

g/cm3

1.70

1.73

Resistance

ohm

8.5

7.5

Bending Strength

MPa

10.0

11.0

Compressive strength

MPa

24.0

17.0

Thermal conductivity

W(m.k)

120

150

C.T.E(100-600)℃

10-6/℃

2.5

2.2

Ash Content

%

0.3

0.09

 

Item

Unit

Guarantee Value

Typical Value

Grain size

mm

0.8

0.8

Density

g/cm3

1.73

1.76

Resistance

ohm

8.0

7.0

Bending Strength

MPa

12.0

12.5

Compressive strength

MPa

31.0

34.0

Thermal conductivity

W(m.k)

130

160

C.T.E(100-600)℃

10-6/℃

2.5

2.1

Ash Content

%

0.3

0.09

 

Item

Unit

Guarantee Value

Typical Value

Grain size

mm

2

2

Density

g/cm3

1.58

1.60

Resistance

ohm

11.5

10.5

Bending Strength

MPa

6.0

6.5

Compressive strength

MPa

18.0

18.5

Modulus of elasticity

GPa

9.3

7.5

C.T.E(100-600)℃

10-6/℃

2.5

2.4

Ash Content

%

0.3

0.09

 

Item

Unit

Guarantee Value

Typical Value

Grain size

mm

2

2

Density

g/cm3

1.70

1.75

Resistance

ohm

8.5

7.5

Bending Strength

MPa

9.0

9.5

Compressive strength

MPa

30.0

31.0

Modulus of elasticity

GPa

12.0

9.5

C.T.E(100-600)℃

10-6/℃

2.5

2.3

Ash Content

%

0.3

0.09

 Picture

Graphite Plate/CNBM Wholesale Carbon Graphite Plates

Graphite Plate/CNBM Wholesale Carbon Graphite Plates




Q:How does carbon affect the formation of desertification?
Carbon can indirectly affect the formation of desertification by contributing to climate change. Increased carbon emissions lead to global warming, which alters weather patterns and increases the frequency and intensity of droughts. These prolonged dry periods, combined with other factors such as deforestation and overgrazing, can accelerate soil degradation and ultimately lead to desertification.
Q:How is activated carbon produced?
Activated carbon is produced by heating carbon-rich materials, such as wood, coal, or coconut shells, at high temperatures in the absence of oxygen. This process, known as activation, creates a highly porous material with a large surface area, which gives activated carbon its adsorptive properties.
Q:What are the main sources of carbon on Earth?
The main sources of carbon on Earth are both natural and anthropogenic (caused by human activity). In terms of natural sources, carbon is present in the Earth's atmosphere in the form of carbon dioxide (CO2), which is released through natural processes such as volcanic eruptions, respiration by plants and animals, and the decay of organic matter. Carbon is also found in the Earth's lithosphere in the form of carbonate rocks, such as limestone and dolomite, which are formed from the shells and skeletons of marine organisms. Anthropogenic sources of carbon are primarily associated with the burning of fossil fuels, such as coal, oil, and natural gas, for energy production and transportation. When these fossil fuels are burned, carbon dioxide is released into the atmosphere, contributing to the greenhouse effect and climate change. Deforestation and land-use changes also release carbon stored in trees and vegetation into the atmosphere. Additionally, human activities like industrial processes, cement production, and waste management contribute to the emission of carbon dioxide and other greenhouse gases. These activities release carbon that has been locked away for millions of years, significantly altering the natural carbon cycle. Overall, while carbon is naturally present on Earth, human activities have significantly increased its release into the atmosphere, leading to concerns about climate change and the need for sustainable practices to reduce carbon emissions.
Q:The relative molecular mass was between 120-150. The testThe organic matter M, which contains only carbon, hydrogen and oxygen, was measured by mass spectrometer. The relative molecular mass was between 120-150. The mass fraction of oxygen element measured by experiment is 48.48%, the ratio of hydrocarbon to mass is 15:2, and only COOH in M molecule is measured by infrared spectrometer. Then the M formula is?
The mass fraction of oxygen element is 48.48%, the mass fraction of hydrocarbon is =51.52%, and the mass ratio is 15:2. The mass fraction of carbon is =51.52%x15/ (15+2) =45.46%, and the mass fraction of hydrogen is =51.52%x2/ (15+2) =6.06%The atomic number of C, H and O is higher than that of =45.46%/12:6.06%/1:48.48%/16=3.79:6.06:3.03Molecules contain only COOH, and oxygen atoms must be even numbers.Therefore, the number of atoms in C, H and O can be reduced to =5:8:4, which may be C5H8O4, and the relative molecular weight is 132
Q:How can carbon capture and storage help reduce greenhouse gas emissions?
Carbon capture and storage (CCS) is a technology that can play a significant role in reducing greenhouse gas emissions. It involves capturing carbon dioxide (CO2) produced from industrial processes or power generation, transporting it, and then storing it underground in geological formations. Firstly, CCS can help reduce greenhouse gas emissions by capturing CO2 directly from large point sources, such as power plants or industrial facilities, that would otherwise be released into the atmosphere. By capturing and storing this CO2, it prevents it from contributing to the greenhouse effect and mitigates its impact on climate change. Secondly, CCS can enable the continued use of fossil fuels, such as coal or natural gas, in a more environmentally friendly manner. These fuels are currently the primary sources of energy for electricity generation and industrial processes. By implementing CCS, the CO2 emissions from these fossil fuel-based activities can be drastically reduced, allowing for a transition towards cleaner energy sources in a more gradual and economically feasible manner. Furthermore, CCS can also be coupled with bioenergy production, creating what is known as bioenergy with carbon capture and storage (BECCS). This process involves using biomass, such as crop residues or purpose-grown energy crops, to produce energy. The CO2 emitted during the bioenergy production is then captured and stored, resulting in a negative emissions process. BECCS can effectively remove CO2 from the atmosphere, helping to offset emissions from other sectors and achieving net-negative emissions. Lastly, CCS can contribute to the decarbonization of hard-to-abate sectors, such as cement and steel production, where alternative low-carbon technologies are currently limited. By capturing and storing CO2 emissions from these sectors, CCS can significantly reduce their overall greenhouse gas emissions and facilitate their transition towards more sustainable practices. In conclusion, carbon capture and storage technology can help reduce greenhouse gas emissions by directly capturing and storing CO2 from large point sources, allowing for the continued use of fossil fuels in a more sustainable manner, enabling the deployment of negative emissions technologies like BECCS, and supporting the decarbonization of hard-to-abate sectors. Implementing CCS alongside other mitigation strategies can play a vital role in achieving global climate goals and combating climate change.
Q:How does carbon impact the prevalence of tsunamis?
The prevalence of tsunamis is not directly impacted by carbon dioxide. Tsunamis primarily occur due to undersea earthquakes, volcanic eruptions, or underwater landslides. These events release massive amounts of energy into the water, creating powerful waves that can travel across the ocean and cause devastating destruction upon reaching the coast. Although tsunamis are not directly caused by carbon dioxide emissions, there is a connection to climate change, which can indirectly influence the frequency and impact of these natural disasters. The increased levels of carbon dioxide and other greenhouse gases in the atmosphere contribute to global warming, resulting in the rise of sea levels. As the sea levels rise, coastal areas become more susceptible to the destructive force of tsunamis, as the waves can penetrate further inland. Additionally, climate change can also have an impact on the frequency and intensity of extreme weather events like hurricanes and tropical storms. These weather patterns can trigger underwater landslides or increase the likelihood of volcanic eruptions, both of which can lead to the occurrence of tsunamis. In conclusion, while carbon dioxide emissions do not directly cause tsunamis, they do play a role within the broader context of climate change. This indirect impact can result in rising sea levels and the potential for more frequent extreme weather events, ultimately affecting the prevalence and impact of tsunamis.
Q:What is the concept of carbon neutrality?
Carbon neutrality is the idea that an entity, whether it be an individual, organization, or even a whole country, has achieved a balance between the amount of carbon dioxide emissions they produce and the amount they offset or remove from the atmosphere. It is essentially a state where the net carbon emissions are zero, indicating that the entity is not contributing to the increase in greenhouse gases and climate change. Achieving carbon neutrality often involves reducing emissions through sustainable practices and technologies, as well as investing in carbon offset projects or utilizing carbon capture and storage methods.
Q:How does carbon dioxide affect the growth of marine organisms?
Carbon dioxide affects the growth of marine organisms in several ways. Firstly, increased levels of carbon dioxide in the ocean can lower the pH, leading to ocean acidification. This change in acidity can have detrimental effects on the growth and development of marine organisms, especially those with calcium carbonate shells or skeletons, such as corals, mollusks, and some plankton species. High levels of carbon dioxide can hinder the ability of these organisms to build and maintain their structures, making them more vulnerable to predation and impacting their overall growth and survival. Furthermore, increased carbon dioxide levels can also affect the physiology and metabolism of marine organisms. Some studies have shown that high levels of carbon dioxide can disrupt the functioning of enzymes responsible for various biological processes, including growth and reproduction. This can lead to reduced growth rates, impaired reproductive success, and overall decreased fitness of marine organisms. Additionally, elevated carbon dioxide levels can also indirectly affect marine organisms by altering the availability and distribution of other important nutrients and resources. For example, increased carbon dioxide can influence the solubility of minerals and trace elements, affecting their bioavailability to marine organisms. This can disrupt nutrient cycling and limit the availability of essential nutrients necessary for growth and development. Overall, the increase in carbon dioxide levels due to human activities can have significant negative impacts on the growth and development of marine organisms. These impacts can disrupt entire marine ecosystems, with potentially serious consequences for biodiversity and the functioning of these ecosystems.
Q:What does "2T-250,1U-200@300" and "1Y-100" mean in carbon fiber cloth reinforcement?
Upstairs to a very comprehensive, I made of carbon fiber cloth
Q:How does carbon impact the availability of renewable energy sources?
Carbon impacts the availability of renewable energy sources in a number of ways. Firstly, carbon emissions from the burning of fossil fuels contribute to climate change, which is a significant threat to the availability and sustainability of renewable energy sources. The increased frequency and intensity of extreme weather events caused by climate change can damage renewable energy infrastructure, such as wind turbines and solar panels. Secondly, carbon-intensive industries, such as coal mining and oil extraction, can limit the growth and development of renewable energy technologies. These industries have historically received substantial subsidies and support from governments, which can hinder the progress of renewable energy by diverting resources and investment away from cleaner alternatives. Furthermore, carbon emissions contribute to air pollution, which can have negative impacts on the efficiency and performance of renewable energy systems. For example, air pollution can reduce the amount of sunlight reaching solar panels or obstruct wind flow to turbines, thereby decreasing their energy output. Additionally, the reliance on carbon-based energy sources creates a significant market competition for renewable energy. Fossil fuels often have lower costs due to their established infrastructure and economies of scale, making it challenging for renewable energy sources to compete on a cost basis. This can limit the availability and accessibility of renewable energy options, particularly in developing countries where fossil fuels are often the cheaper and more readily available option. To address these challenges, it is crucial to reduce carbon emissions through transitioning to renewable energy sources and implementing policies that incentivize their adoption. By reducing carbon emissions, we can mitigate the impacts of climate change on renewable energy infrastructure and create a more conducive environment for the development and deployment of clean energy technologies.

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