Calcined Anthracite Used as Injection Carbon

Calcined Anthracite Used as Injection Carbon System 1

Calcined Anthracite Used as Injection Carbon System 2

Calcined Anthracite Used as Injection Carbon

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Loading Port:: Tianjin

Payment Terms:: TT OR LC

Min Order Qty:: 20 m.t.

Supply Capability:: 5000 m.t./month

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Calcined Anthracite Used as Injection Carbon

25kgs/50kgs/1ton per bag or as buyer's request

Specifications

Calcined Anthracite Used as Injection Carbon

Calcined Anthracite
Fixed carbon: 90%-95%
S: 0.5% max
Size: 0-3. 3-5.3-15 or as request

Calcined Anthracite Used as Injection Carbon

It used the high quality anthracite as raw materials through high temperature calcined at over 2000 by the DC electric calciner with results in eliminating the moisture and volatile matter from anthracite efficiently, improving the density and the electric conductivity and strengthening the mechanical strength and anti-oxidation. It has good characteristics with low ash, low resistvity, low sulphur, high carbon and high density. It is the best material for high quality carbon products.

Advantage:

Calcined Anthracite Used as Injection Carbon

1. strong supply capability

2. fast transportation

3. lower and reasonable price for your reference

4.low sulphur, low ash

5.fixed carbon:95% -90%

6..sulphur:lower than 0.3%

General Specification of Calcined Anthracite:

Calcined Anthracite Used as Injection Carbon

FC	95	94	93	92	90
ASH	4	5	6	6.5	8.5
V.M.	1	1	1	1.5	1.5
S	0.3	0.3	0.3	0.35	0.35
MOISTURE	0.5	0.5	0.5	0.5	0.5

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Calcined Anthracite Used as Injection Carbon

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1.High quality and competitive price.

2.Timely delivery.

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Q:How does carbon contribute to air pollution?: Carbon contributes to air pollution primarily through the emission of carbon dioxide (CO2) and carbon monoxide (CO) into the atmosphere. The burning of fossil fuels, such as coal, oil, and natural gas, releases large amounts of carbon dioxide, a greenhouse gas that contributes to global warming and climate change. This increased level of CO2 in the atmosphere traps heat, leading to the greenhouse effect and subsequent rise in global temperatures. Additionally, incomplete combustion of fossil fuels and biomass can release carbon monoxide, a toxic gas that can have detrimental effects on human health. Carbon monoxide is particularly dangerous as it binds to hemoglobin in the blood, reducing its oxygen-carrying capacity and potentially causing asphyxiation. Furthermore, carbon-containing compounds such as volatile organic compounds (VOCs) contribute to air pollution. VOCs are released from various sources, including industrial processes, vehicle emissions, and the use of solvents in paints and cleaning products. These compounds react with other pollutants in the atmosphere to form ground-level ozone, a major component of smog. Ozone can cause respiratory problems, eye irritation, and other health issues when inhaled. In conclusion, carbon contributes to air pollution through the emission of carbon dioxide, carbon monoxide, and volatile organic compounds. These pollutants have significant impacts on climate change, human health, and the overall quality of the air we breathe. It is crucial to reduce carbon emissions and adopt sustainable practices to mitigate the negative effects of carbon on air pollution.

Q:How are fossil fuels formed from carbon?: Fossil fuels are formed from carbon through a natural process that takes millions of years. The process begins with the remains of plants and animals that lived millions of years ago. These remains, which contain carbon, get buried under layers of sediment in oceans, swamps, and other bodies of water. Over time, the pressure from the layers of sediment and the heat from the Earth's crust cause a process called diagenesis to occur. During diagenesis, the organic matter in the remains undergoes chemical changes, transforming it into a substance known as kerogen. As more layers of sediment continue to accumulate, the temperature and pressure increase further. Eventually, the kerogen undergoes a process called catagenesis, where it is heated to even higher temperatures. This causes the kerogen to break down and transform into liquid and gaseous hydrocarbons, which are the main components of fossil fuels. The liquid hydrocarbons form what is known as crude oil or petroleum, while the gaseous hydrocarbons form natural gas. Both of these fossil fuels can be extracted from the Earth's crust through drilling. In summary, fossil fuels are formed from carbon through a complex and lengthy process involving the burial, pressure, and heat of organic matter over millions of years. This process transforms the carbon-rich remains into hydrocarbons, which become the valuable resources that we use as fossil fuels today.

Q:How is carbon stored in the Earth's crust?: Various forms of carbon are stored in the Earth's crust through different geological processes. One primary method of storage involves the creation of sedimentary rocks like limestone, dolomite, and chalk. These rocks consist mainly of calcium carbonate, which comes from the shells and skeletons of marine organisms that existed millions of years ago. As time passes, these remains gather on the ocean floor and become compressed and cemented, effectively trapping carbon within them. Another way carbon is stored in the Earth's crust is through carbonation. Carbon dioxide (CO2) from the atmosphere can dissolve in water and react with specific minerals, like basalt, leading to the formation of carbonate minerals such as calcite or magnesite. This natural process occurs through chemical weathering and volcanic activity, aiding in the sequestration of carbon within the Earth's crust. Moreover, organic carbon takes the form of fossil fuels, including coal, oil, and natural gas. These fuels are the remnants of ancient plants and microorganisms that lived and perished millions of years ago. Over time, the organic matter becomes buried and subjected to high pressure and temperature, resulting in a process known as diagenesis, which eventually converts it into fossil fuels. These deposits serve as carbon reservoirs within the Earth's crust. In summary, the Earth's crust acts as a significant carbon sink, efficiently storing carbon through processes such as the formation of sedimentary rocks, carbonation, and the accumulation of fossil fuels. However, it is crucial to note that human activities, particularly the combustion of fossil fuels, are releasing substantial amounts of stored carbon into the atmosphere, contributing to global climate change.

Q:How is carbon used in the production of batteries?: Due to its unique properties, carbon is crucial in the manufacturing of batteries. It serves as an electrode material in primary and secondary batteries. When it comes to primary batteries, carbon acts as the cathode material. It plays a crucial role in facilitating the chemical reactions that occur during the discharge process, allowing the flow of electrons. The high conductivity of carbon is essential for efficient electron transfer, ensuring effective power delivery. Moreover, carbon's stability and low reactivity make it an excellent choice for durable primary batteries. In the case of secondary batteries, such as lithium-ion batteries, carbon is utilized in both the anode and cathode. The anode is composed of graphite, a type of carbon that can intercalate lithium ions during charging and release them during discharging. This process enables the reversible storage and release of energy, making graphite an ideal material for the anode. Carbon also enhances the overall performance of the cathode in secondary batteries. Carbon-based materials, like carbon black, are incorporated into the cathode to improve electrical conductivity and increase the available surface area for reactions. This results in higher energy and power densities, ultimately enhancing the battery's overall performance. Furthermore, researchers are exploring the use of carbon additives, such as carbon nanotubes or graphene, to further enhance battery performance. These carbon-based materials possess unique properties, including high surface area, electrical conductivity, and mechanical strength. These properties have the potential to improve energy storage capacity and battery lifespan. In conclusion, carbon plays a vital role in battery production by enabling efficient electron transfer, energy storage, and release. Its conductivity, stability, and ability to intercalate ions make it an essential component in both primary and secondary batteries, contributing to the advancement of energy storage technology.

Q:What role does carbon play in the carbon cycle?: Carbon plays a crucial role in the carbon cycle as it is the main element that cycles between the atmosphere, plants, animals, and the Earth's crust. It is released into the atmosphere through various processes like respiration, combustion, and volcanic activity, and then absorbed by plants through photosynthesis. Carbon is then transferred from plants to animals through the food chain. When plants and animals die, their organic matter decomposes and releases carbon back into the atmosphere or gets stored in the Earth's crust as fossil fuels. The carbon cycle helps maintain a balance of carbon dioxide in the atmosphere, which is vital for regulating Earth's temperature and supporting life on our planet.

Q:What are the applications of carbon nanomaterials in medicine?: Carbon nanomaterials have emerged as promising tools in the field of medicine due to their unique properties and potential applications. One of the key applications of carbon nanomaterials in medicine is in drug delivery systems. These nanomaterials can be functionalized with drugs, making them capable of targeted delivery to specific cells or tissues. The large surface area of carbon nanomaterials allows for more efficient drug loading, enabling improved therapeutic efficacy and reduced side effects. Carbon nanomaterials also show great potential in the field of tissue engineering. They can be used as scaffolds to support the growth and regeneration of damaged tissues. Carbon nanomaterials possess excellent mechanical strength and biocompatibility, making them suitable for applications such as bone and cartilage repair. Additionally, their electrical and thermal conductivity properties make them ideal for creating bioelectrodes and biosensors, which can be used for various diagnostic and monitoring purposes. Furthermore, carbon nanomaterials have been explored for their antimicrobial properties. They have shown the ability to inhibit the growth of bacteria and fungi, making them potential candidates for developing new antimicrobial agents. This could be particularly useful in preventing and treating infections in medical devices and implants. Another application of carbon nanomaterials in medicine is in imaging and diagnostics. These nanomaterials can be used as contrast agents in various imaging techniques, such as magnetic resonance imaging (MRI) and fluorescence imaging. Their unique optical and magnetic properties allow for enhanced imaging and improved detection of diseases, such as cancer. Carbon nanomaterials also hold promise in the field of cancer therapy. They can be used in photothermal therapy, where the nanomaterials are exposed to light, converting it into heat and selectively killing cancer cells. Additionally, carbon nanomaterials can be used in photodynamic therapy, where they generate reactive oxygen species upon light activation, leading to cancer cell destruction. In summary, carbon nanomaterials have a wide range of applications in medicine. They offer the potential for targeted drug delivery, tissue engineering, antimicrobial agents, diagnostic imaging, and cancer therapy. Continued research and development in this field hold great promise for revolutionizing medical treatments and improving patient outcomes.

Q:How does carbon impact the prevalence of earthquakes?: Carbon does not directly impact the prevalence of earthquakes. Earthquakes are primarily caused by the movement of tectonic plates, which are massive sections of the Earth's crust that float on the semi-fluid layer underneath. When these plates collide, slide past each other, or separate, it can cause a release of energy in the form of seismic waves, resulting in an earthquake. Carbon, on the other hand, is a chemical element that is present in various forms in the Earth's atmosphere, oceans, and living organisms. While carbon dioxide (CO2) emissions from human activities contribute to climate change and affect the Earth's ecosystems, there is no direct link between carbon emissions and the prevalence of earthquakes. However, it is worth noting that some geologists and scientists speculate that human activities, such as the extraction of fossil fuels, may indirectly influence seismic activity. The extraction of large quantities of oil, gas, or water from the Earth's crust can potentially lead to changes in the underground pressure and stress distribution, which might trigger small-scale seismic events known as induced earthquakes. These induced earthquakes are typically of low magnitude and are localized to the area where the extraction is taking place. Overall, while carbon emissions and human activities may have some impact on seismic activity in specific localized areas, the prevalence of earthquakes on a global scale is primarily driven by tectonic plate movements and not directly influenced by carbon.

Q:What are the consequences of increased carbon emissions on educational systems?: Increased carbon emissions have profound consequences on educational systems. One of the major consequences is the negative impact on the health and well-being of students and teachers. Carbon emissions contribute to air pollution, which can lead to respiratory problems, allergies, and other health issues. This, in turn, affects attendance rates and overall student performance. Furthermore, the effects of climate change caused by carbon emissions, such as extreme weather events and rising temperatures, can disrupt educational infrastructure. Schools may be closed or damaged due to hurricanes, floods, or heatwaves, leading to a loss of instructional time and disruption to the learning environment. In addition, increased carbon emissions contribute to the depletion of natural resources, such as water and food, which can have severe consequences for educational systems. In regions heavily reliant on agriculture, climate change can disrupt food production and availability, leading to malnutrition and reduced cognitive development in children. Lack of access to clean water can also impact sanitation in schools, increasing the risk of diseases and impacting students' ability to concentrate and learn. Moreover, the consequences of increased carbon emissions extend beyond physical health and infrastructure. Climate change is a complex global issue that requires an understanding of scientific concepts and critical thinking skills to address. However, inadequate education on climate change and its causes can hinder students' ability to comprehend and respond to this pressing issue. Furthermore, the economic impacts of climate change resulting from increased carbon emissions can strain educational systems. Governments may have to divert resources away from education to address climate-related disasters and their aftermath. Limited funding for education can lead to reduced access to quality education, inadequate facilities, and lower teacher salaries, all of which can negatively impact the overall quality of education provided. In conclusion, increased carbon emissions have wide-ranging consequences on educational systems. From the health and well-being of students and teachers to disruptions in infrastructure and access to resources, the effects of carbon emissions can hinder educational outcomes. Addressing climate change and reducing carbon emissions is crucial not just for the environment but also for the future of education.

Q:What are the impacts of carbon emissions on the stability of kelp forests?: Kelp forests are significantly affected by carbon emissions, which have a major impact on their stability. The increased levels of carbon dioxide in the atmosphere lead to ocean acidification, causing harmful effects on kelp. When carbon dioxide dissolves in seawater, it creates carbonic acid, which lowers the ocean's pH. This acidification prevents kelp from growing and developing properly, making them more vulnerable to stressors and reducing their overall stability. Ocean acidification affects kelp physiology in various ways. It impairs their ability to absorb essential nutrients like nitrogen and phosphorus, which are crucial for their growth. This nutrient deficiency weakens the kelp, making them more susceptible to diseases, predation, and damage from storms. Moreover, acidified seawater hinders the development of kelp spores, which impairs their ability to reproduce and regenerate kelp forests. Furthermore, carbon emissions contribute to the increase in sea temperatures, which also harm kelp forests. As the climate warms, kelp may face thermal stress, resulting in slower growth rates and higher mortality rates. Warmer waters also create favorable conditions for harmful algae species, which can outcompete kelp for space and resources, further destabilizing kelp forests. The stability of kelp forests is crucial because they provide numerous ecosystem services. They act as important carbon sinks, absorbing and storing large amounts of carbon dioxide from the atmosphere. Kelp forests also serve as habitats and nursery grounds for a wide range of marine species, including commercially important fish and invertebrates. They play a vital role in maintaining the health and productivity of coastal ecosystems by reducing coastal erosion, improving water quality, and supporting biodiversity. To mitigate the impacts of carbon emissions on kelp forests, it is crucial to reduce our carbon footprint by transitioning to cleaner and more sustainable energy sources. Additionally, protecting and restoring coastal habitats, including kelp forests, can enhance their resilience to climate change and other stressors. Implementing sustainable fishing practices and establishing marine protected areas can also help preserve and maintain the stability of kelp forests and the valuable ecosystem services they provide.

Q:What is the impact of carbon emissions on agriculture?: Carbon emissions have a significant impact on agriculture, affecting both crop production and livestock farming. One of the primary consequences of increased carbon emissions is climate change, which alters weather patterns and temperatures. These changes can disrupt the delicate balance required for successful agriculture. Rising temperatures caused by carbon emissions lead to increased evaporation, which can reduce soil moisture and hinder crop growth. Droughts become more frequent and severe, leading to water scarcity and decreased crop yields. Furthermore, extreme weather events such as floods, storms, and hurricanes become more frequent, causing extensive damage to crops and farmland. Another consequence of carbon emissions is the alteration of atmospheric composition. High levels of carbon dioxide (CO2) stimulate the growth of certain weeds and invasive species, which compete with crops for resources such as sunlight, water, and nutrients. This competition can lead to reduced crop yields and lower quality produce. Additionally, carbon emissions contribute to air pollution, including ozone formation. High levels of ozone can damage plant tissues and reduce photosynthesis, limiting crop productivity. Ozone also negatively affects the health of livestock, reducing their growth rates and milk production. The impact of carbon emissions on agriculture is not limited to crop production. Livestock farming is also affected, as changes in climate and temperature can impact animal health and productivity. Heat stress becomes a significant issue, leading to reduced fertility, lower milk yields, and increased susceptibility to diseases. Livestock also need access to adequate water and nutritious feed, which can become scarce due to droughts and increased competition for resources. Overall, carbon emissions have a detrimental impact on agriculture, affecting both crop production and livestock farming. Climate change, altered weather patterns, and increased competition for resources all contribute to reduced yields, lower quality produce, and decreased livestock productivity. Addressing and mitigating carbon emissions is crucial to ensure the sustainability and resilience of the agricultural sector in the face of these challenges.

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