Carbon Electrode Paste with Low Ash And Good Quality

Carbon Electrode Paste with Low Ash And Good Quality

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Loading Port:: Lianyungang

Payment Terms:: TT or LC

Min Order Qty:: 20 m.t.

Supply Capability:: 2000 m.t./month

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Graphite/Carbon Electrode Paste Specification:

Ash.( % ) 4.0 max 5.0 max 6.0 max 7.0 max 9.0 max1 1.0 max

V.M （%） 12.0-15.5 12.0-15.5 12.0-15.5 9.5-13.5 11.5-15.5 11.5-15.5

Compress Strength. 18.0 min 17 min 15.7 min 19.6 min 19.6 min 19.6 min

Specific Resistance 65 max 68 max 75 max 80 max 90 max 90 max

Bulk Density 1.38 min 1.38 min1 .38 min 1.38 min 1.38 min 1.38 min

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Carbon Electrode Paste with Low Ash And Good Quality

PACKAGE

In mt jumbo bag or as buyer's request

Q:What is carbon nanoelectronics?: Carbon nanoelectronics refers to the field of study and technology that focuses on using carbon-based materials, particularly carbon nanotubes or graphene, to create electronic devices and components at the nanoscale. These materials possess unique electrical and mechanical properties, making them highly promising for developing faster, smaller, and more efficient electronic devices such as transistors, sensors, and memory storage units.

Q:What are the effects of carbon emissions on the stability of peatlands?: Carbon emissions have significant effects on the stability of peatlands, leading to various environmental and ecological consequences. Peatlands are wetland ecosystems composed of partially decomposed organic matter, primarily consisting of dead plants and mosses. These ecosystems are known as important carbon sinks, storing large amounts of carbon in the form of plant material and organic peat. When carbon emissions, particularly from the burning of fossil fuels, are released into the atmosphere, it contributes to the overall increase in greenhouse gases, such as carbon dioxide (CO2) and methane (CH4). This increase in greenhouse gases leads to global warming and climate change, which have direct impacts on peatlands. One of the primary effects of carbon emissions on peatlands is the acceleration of peat decomposition. As temperatures rise due to global warming, the rate of microbial activity in peatlands increases, resulting in faster decomposition of organic matter. This process releases carbon dioxide and methane, further contributing to greenhouse gas emissions. The increased decomposition can also lead to the subsidence or sinking of peatlands, which affects their stability and can contribute to land degradation. Additionally, carbon emissions can alter the hydrology of peatlands. Rising temperatures can cause increased evaporation and reduced precipitation, leading to drier conditions in peatlands. This can result in water tables dropping below the surface, which inhibits the growth of mosses and the accumulation of new peat. As a result, peatlands become less capable of sequestering carbon and can even transition into carbon sources rather than sinks. The destabilization of peatlands due to carbon emissions has cascading effects on the overall ecosystem. Peatlands provide habitats for numerous plant and animal species, many of which are unique and highly adapted to these specific environments. The drying and sinking of peatlands can disrupt these ecosystems, leading to changes in the composition and distribution of species, as well as increased susceptibility to invasive species. Furthermore, the release of carbon dioxide and methane from peatlands contributes to the amplification of climate change. These greenhouse gases trap heat in the atmosphere, leading to further warming and exacerbating the cycle of peat decomposition and carbon emissions. In conclusion, carbon emissions have detrimental effects on the stability of peatlands, including accelerated peat decomposition, altered hydrology, and disruption of ecosystems. These impacts not only hinder peatlands' ability to sequester carbon but also contribute to climate change, creating a negative feedback loop. It is crucial to reduce carbon emissions and prioritize the preservation and restoration of peatlands to mitigate these effects and protect these valuable ecosystems.

Q:What is the chemical symbol for carbon?: C is the designated chemical symbol for carbon.

Q:What is the carbon footprint of different activities?: The carbon footprint of different activities refers to the amount of greenhouse gas emissions, particularly carbon dioxide, that are produced as a result of those activities. It varies depending on the type and scale of the activity. Activities such as driving a car, flying, using electricity, and consuming meat and dairy products typically have higher carbon footprints compared to activities such as walking, cycling, using renewable energy, and eating plant-based foods. The carbon footprint of an activity is an important measure to assess its environmental impact and to make informed choices towards reducing our carbon emissions.

Q:Rod box material, there is a kind of material called carbon fiber, who knows this material is good?: This material is good. Carbon fiber is a new kind of fiber material with high strength and high modulus of carbon content of more than 95%. It is a flaky graphite, microcrystalline and other organic fibers stacked along the axial direction of the fiber, obtained by carbonization and graphitization of microcrystalline graphite material. Carbon fiber "an hand in a velvet glove lighter than aluminum," the quality, but the strength is higher than that of steel, and has the characteristics of corrosion resistance, high modulus, in the national defense and civilian areas are important materials. It has not only the intrinsic characteristics of carbon materials, but also the softness and processability of textile fibers. It is a new generation of reinforced fiber.

Q:What are the properties of carbon-based rubber?: Carbon-based rubber, also known as carbon black-filled rubber, possesses several important properties that make it highly desirable for various applications. Firstly, carbon-based rubber exhibits excellent elasticity and flexibility, allowing it to withstand repeated stretching and compression without permanent deformation. This property makes it ideal for use in manufacturing products such as tires, gaskets, and seals. Secondly, carbon-based rubber displays outstanding resistance to abrasion and wear, ensuring that it can endure harsh conditions and prolonged use without deteriorating. This property is particularly beneficial in applications where the rubber material is subjected to friction or constant contact with rough surfaces. Additionally, carbon-based rubber demonstrates remarkable resistance to various environmental factors. It has excellent resistance to ozone, sunlight, and weathering, making it suitable for outdoor applications where it will be exposed to UV radiation and extreme temperatures. Its resistance to chemicals and oils further enhances its versatility, allowing it to be used in industries such as automotive, aerospace, and manufacturing. Another noteworthy property of carbon-based rubber is its electrical conductivity. This characteristic makes it an ideal material for applications that require static dissipation or protection against electrostatic discharge, such as in electronic devices, conveyor belts, and industrial flooring. Furthermore, carbon-based rubber exhibits good adhesion to various substrates, enabling it to form strong bonds when used in adhesive applications or as a lining material. Overall, the properties of carbon-based rubber make it a highly sought-after material due to its exceptional elasticity, abrasion resistance, environmental resistance, electrical conductivity, and adhesion capabilities.

Q:How does carbon affect the formation of acidification in lakes?: Carbon dioxide (CO2) plays a significant role in the formation of acidification in lakes. When carbon dioxide is released into the atmosphere through various human activities, such as burning fossil fuels, it can be absorbed by water bodies like lakes. This absorption leads to the formation of carbonic acid (H2CO3), a weak acid. Carbonic acid dissociates into hydrogen ions (H+) and bicarbonate ions (HCO3-) in water. The increase in hydrogen ions causes a decrease in pH levels, making the water more acidic. This process is known as acidification. Acidification in lakes can have detrimental effects on aquatic ecosystems. It affects the physiology and behavior of many species, including fish, amphibians, and invertebrates. Acidic waters can also damage the eggs and larvae of these organisms, hindering their growth and survival. Additionally, acidification can alter the composition and abundance of phytoplankton, which are crucial for the overall health of the ecosystem. High levels of acidity can also lead to the leaching of toxic metals, such as aluminum, from the surrounding soil and rocks. These toxic metals are then dissolved in the water, posing an additional threat to aquatic organisms. Acidification can also disrupt the nutrient cycles in lakes, affecting the availability of essential nutrients for plants and animals. In summary, the presence of carbon dioxide in the atmosphere contributes to the acidification of lakes when it is absorbed by water. This acidification has a range of negative impacts on the aquatic ecosystem, including altered physiology, impaired reproduction, and disrupted nutrient cycles. It is crucial to reduce carbon emissions and mitigate the effects of acidification to protect the health and diversity of lake ecosystems.

Q:How does carbon impact the stability of savannah ecosystems?: Carbon plays a crucial role in the stability of savannah ecosystems. It is an essential element for all living organisms and is involved in various ecological processes. Carbon is primarily present 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 impacts stability in multiple ways. Firstly, carbon dioxide (CO2) is a key component of the Earth's atmosphere and plays a significant role in regulating the global climate. Savannas are known for their ability to sequester and store large amounts of carbon in their vegetation and soils. This carbon storage helps mitigate climate change by reducing the amount of CO2 in the atmosphere. Furthermore, carbon is essential for plant growth through photosynthesis. Savanna plants, such as grasses and scattered trees, utilize carbon dioxide from the air, converting it into 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 also depends on the interaction between plants and animals. Carbon-rich vegetation serves as a food source for herbivores, such as zebras and antelopes, which in turn support predators like lions and hyenas. The carbon cycle ensures a continuous flow of energy and nutrients throughout the food web, maintaining the balance and stability of the ecosystem. Moreover, the carbon content in savannah soils influences 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 the growth of vegetation 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 altering 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 the burning of fossil fuels contributes to the greenhouse effect and climate change, which can disrupt the stability of savannah ecosystems. 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, efforts to conserve and restore savannah ecosystems are essential for preserving their carbon storage capacity and ensuring their long-term stability.

Q:I don't know the battery. Although I know the former is chemical energy, I want to know if the 1 grain size 5 can compare the charge capacity with the 1 grain 5 1ANot much of a fortune, but thank you very much for the enthusiastic friend who gave me the answer. Thank you!: Note:The above parameter is the mean under the condition that no virtual object is includedAA's battery is size five (diameter 14mm, height 50mm)According to your description, what you mean by "capacitance" is power, which is the actual amount of electricity in the battery.Correct you a misunderstanding, that is, whether it is a one-time battery or lithium battery, rechargeable batteries (nickel hydrogen) are chemical batteries.AA disposable lithium iron batteries have made us resistant and energizer L91, prices in the 2-30 yuan a day before, regardless of the brand and price, the actual consumption of almost all.Hand hit, reference material is "flashlight everybody talks about" Forum

Q:What are carbon sinks?: Carbon sinks are natural or artificial reservoirs that absorb and store carbon dioxide from the atmosphere, helping to mitigate climate change by reducing greenhouse gas concentrations. Examples of carbon sinks include forests, oceans, and soil.

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