CNBM Carbon Cored Wire For Feeding Machine

CNBM Carbon Cored Wire For Feeding Machine System 1

CNBM Carbon Cored Wire For Feeding Machine System 2

CNBM Carbon Cored Wire For Feeding Machine System 3

CNBM Carbon Cored Wire For Feeding Machine

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Loading Port:: Shanghai

Payment Terms:: TT OR LC

Min Order Qty:: 20 m.t.

Supply Capability:: 1000 m.t./month

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Quick Details

Place of Origin:	China	Brand Name:	CNBM	Model Number:	Cr
Type:	Bare	Application:	Heating	Conductor Material:	Cr
Conductor Type:	Solid

Packaging & Delivery

Packaging Details:	Coil on the pallet+steel cage+damp proof film
Delivery Detail:	the shipment time is about 10 days from the firm order or as request

Specifications

1.Good resistant (life) to oxidation at high temp.
2.For high value electrical resistor
3.Al heating strip

Our advantage:

We can provide high quality material, excellent design, precise manufacturing,complete specifications, considerate and integrity serivices.

We can provide all kinds of electric heating alloy material and elements, including customized products.

We can provide a complete solution for you.

Characteristics:

1.It is used by injection way.Facilitate the operation and reduce the operation cost.

2.Being propitious to adjust and control the active metal and the content of microelement.

3.Keep stable of the alloy performance function, reducing steelmaking cost.

4.Changing the inclusion form to improve the mechanical property.

Usage:

Resistance heating elements;Material in metallurgy;Household appliances;Mechanical manufacturing and other industries.

CNBM CARBON CORED-WIRE

Material SPECIFICANTION MATERIAL

C	98%MIN
S	1 %MAX
ASHES	1.8 % MAX，
VOLATILE	1.6%Max
N2	1%Max
WIRE DIAMETER	13.5MM +/- 0.5MM
SHEATH	0.38MM +/- 0.05MM
POWDER WEIGHT	150 G/M +/-10 G/M
COIL INTERNAL DIAMETER	570MM +/-10%
COIL HEIGHT/WIDTH	1090MM +/-10%
COIL EXTERNAL DIAMETER	1100MM+/-10%
NET WIRE WEIGHT PER COIL	1500KG+/-10% OR AS CUSTOMER REQUEST

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Q: How are carbon markets regulated?: Carbon markets are regulated through a combination of international agreements, national legislation, and the oversight of regulatory bodies. These regulations aim to ensure the transparency, integrity, and effectiveness of carbon trading activities. They often include requirements for the accurate measurement and reporting of emissions, the establishment of reliable registries, the accreditation of market participants, and the enforcement of compliance mechanisms.

Q: What are the impacts of carbon emissions on the stability of polar ice caps?: The stability of polar ice caps is significantly affected by carbon emissions, which arise primarily from the burning of fossil fuels. This process releases substantial amounts of carbon dioxide into the atmosphere, a greenhouse gas that traps heat and contributes to global warming and climate change. Consequently, the ice caps in the polar regions, which are extremely sensitive to temperature changes, experience accelerated melting as the Earth's temperature rises due to increased carbon emissions. This leads to a rise in sea levels, with far-reaching consequences for coastal regions globally, including increased flooding, erosion, and the loss of valuable coastal ecosystems. Furthermore, the preservation of the polar ice caps is vital for maintaining the Earth's climate balance. These ice caps play a crucial role in reflecting sunlight back into space, serving as a natural cooling mechanism for the planet. However, as they melt, less sunlight is reflected, resulting in more absorption by the Earth's surface and exacerbating the warming effect. This creates a feedback loop, where the melting of ice caps leads to further warming, causing more ice to melt. The impacts of carbon emissions on polar ice caps extend beyond rising sea levels and climate change. The loss of ice also disrupts the delicate balance of ecosystems in these regions. Polar ice caps provide habitat and sustenance for a diverse range of organisms, including polar bears, seals, and various species of birds. Consequently, the melting of ice disrupts these ecosystems, leading to declines in wildlife populations and potential extinctions. Moreover, the melting of polar ice caps also has repercussions for global ocean currents and weather patterns. The melting ice forms cold, dense water that sinks to the bottom of the ocean and drives crucial oceanic circulation patterns. Changes in these patterns can have far-reaching consequences, such as altering the distribution of marine species, impacting fisheries, and influencing regional climates. To mitigate the impacts of carbon emissions on polar ice caps, it is essential to reduce greenhouse gas emissions and transition to cleaner and renewable energy sources. International initiatives, such as the Paris Agreement, are aimed at limiting global warming and reducing carbon emissions to prevent further melting of the ice caps. Additionally, supporting research and monitoring programs in polar regions can enhance our understanding of these complex systems and facilitate the development of effective conservation strategies.

Q: What is the role of carbon in the formation of fossil fuels?: The role of carbon in the formation of fossil fuels is crucial. Fossil fuels, such as coal, oil, and natural gas, are formed from the remains of ancient plants and organisms that lived millions of years ago. These organisms were primarily made up of carbon-based compounds. Over time, the organic matter accumulated and was buried under layers of sediment, subjected to intense heat and pressure. This process, known as carbonization, caused the carbon within the organic matter to undergo chemical changes, transforming it into fossil fuels. Therefore, carbon is the key element involved in the formation of fossil fuels.

Q: What are carbon offsets?: The use of carbon offsets is a method employed to aid in the reduction of greenhouse gas emissions and the fight against climate change. Essentially, it offers a means for individuals, organizations, or businesses to compensate for their own carbon dioxide (CO2) emissions by investing in projects that decrease emissions in other places. Carbon offsets are founded on the concept that emissions reduction can be accomplished through various methods and at different costs. Rather than solely focusing on reducing their own emissions, individuals or entities can utilize carbon offsetting to support projects that can achieve greater emission reductions per unit of cost. These projects encompass renewable energy, energy efficiency, reforestation, methane capture, and others. To obtain carbon offsets, individuals or organizations typically calculate their own carbon footprint by evaluating the amount of CO2 they emit through activities like energy consumption or transportation. After quantifying their emissions, they can purchase carbon offsets equivalent to the amount of CO2 they have emitted. These offsets are generated by projects that undergo independent verification and certification by recognized standards and registries. Once purchased, the carbon offsets are effectively canceled or retired, ensuring that the emission reduction accomplished by the project is not double-counted or claimed by another party. By investing in carbon offsets, individuals or organizations can effectively neutralize their own emissions and contribute to global endeavors to combat climate change. However, it is crucial to recognize that carbon offsets should not be viewed as a substitute for reducing emissions at the source. They should be utilized as a supplementary tool to support emission reduction efforts while simultaneously implementing measures to minimize our own emissions through energy efficiency, adoption of renewable energy, and sustainable practices.

Q: What is the greenhouse effect?: Certain gases in the Earth's atmosphere naturally trap heat from the sun, preventing it from escaping back into space. These gases, like carbon dioxide (CO2), methane (CH4), and water vapor, act as a blanket, allowing sunlight to pass through but trapping the heat radiated from the Earth's surface. This process is vital for the Earth's survival as it helps maintain a relatively stable and livable temperature range. Without the greenhouse effect, the Earth's average temperature would be much colder, rendering it uninhabitable for most forms of life. However, human activities such as burning fossil fuels, deforestation, and industrial processes have significantly increased the concentration of greenhouse gases in the atmosphere. This excessive amount of greenhouse gases intensifies the greenhouse effect, leading to global warming. Global warming refers to the gradual increase in the Earth's average temperature, primarily caused by human-induced emissions of greenhouse gases. This temperature rise has far-reaching consequences, including the melting of ice caps, rising sea levels, extreme weather events, and disruption of ecosystems. While the greenhouse effect itself is a natural and necessary process, the enhanced greenhouse effect resulting from human activities contributes to climate change. Therefore, it is crucial to reduce greenhouse gas emissions and adopt sustainable practices to mitigate the adverse effects of global warming.

Q: What should be done to deal with leakage of carbon monoxide from the plant?: The hazardous and dangerous characteristics of carbon monoxide, carbon monoxide, is the Chinese name of CO. It is the product of incomplete combustion of materials. It is slightly soluble in water and soluble in various organic solvents such as ethanol and benzene. Mainly used in industrial chemical synthesis, such as synthetic methanol, phosgene, etc., or refined metal reducer. Occupation exposure to carbon monoxide in manufacturing steel and iron, coke, ammonia, methanol, graphite electrode, printing and dyeing factory, singeing, internal combustion engine powered coal mining blasting; non occupation contact is more extensive, such as household water heater was boiling water, winter coal, gas heating and so on, will produce carbon monoxide. Carbon monoxide is a flammable toxic gas known, but because of its physical and chemical properties of colorless smelly, so it is not easy to be aware of the harm, so it is not only the occupation killer, or the people's daily living potential. Carbon monoxide mixed with air can form an explosive mixture. When exposed to fire, high heat can cause combustion and explosion. Bottled carbon monoxide in case of high fever, increased pressure within the container, cracking and explosion. Because carbon monoxide has flammable properties, strong oxidizing agents and alkalis are its inhibitions. If the fire, should immediately cut off the gas source; if not immediately cut off the gas source, is not allowed to extinguish the burning gas.

Q: The home wants to install electricity to warm the floor, the metal heating cable certainly won't use to have radiation, but is carbon system carbon fiber good or carbon crystal good?: The metal heating cable radiation is very small, much smaller than your mobile phone, carbon fiber, carbon life of only ten years, did not reach the standard of heating heating industry, the industry standard is 50 years of life, only water heating and heating cable alloy wire current.

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 does carbon impact the stability of tundra ecosystems?: Carbon impacts the stability of tundra ecosystems in several ways. Firstly, carbon plays a crucial role in the formation and development of tundra soils. As plants in the tundra grow and photosynthesize, they absorb carbon dioxide from the atmosphere and convert it into organic matter through photosynthesis. This organic matter eventually decomposes and adds carbon to the soil, forming a layer of organic-rich permafrost that helps stabilize the ecosystem. Additionally, carbon in the form of vegetation acts as a protective layer against erosion in tundra ecosystems. The dense vegetation cover, composed of mosses, lichens, and shrubs, helps to hold the soil in place and prevents it from being washed away by wind or water. This stabilization is essential in the tundra, where the cold temperatures and short growing seasons limit plant growth and soil development. Furthermore, the stability of tundra ecosystems is influenced by the release of carbon dioxide and methane, which are greenhouse gases, from the melting permafrost. As global temperatures rise, the permafrost thaws, releasing stored carbon into the atmosphere. This process creates a positive feedback loop, as the released carbon contributes to further warming, which in turn accelerates permafrost thawing. This feedback loop has the potential to destabilize tundra ecosystems by altering the balance of plant and animal life, disrupting nutrient cycling, and increasing the risk of wildfires. Overall, carbon plays a vital role in maintaining the stability of tundra ecosystems through the formation of soils, erosion control, and the regulation of greenhouse gas emissions. Understanding and managing carbon dynamics in the tundra is crucial for preserving these unique and fragile ecosystems in the face of climate change.

Q: How is carbon used in the production of activated carbon filters?: Various industries and applications widely utilize activated carbon filters. These filters are utilized in water and air purification, gas masks, and even in the production of certain chemicals. The effectiveness of activated carbon filters heavily relies on the role of carbon in their production. Activated carbon, also referred to as activated charcoal, is a type of carbon that possesses a highly porous structure and a large surface area. The creation of this porous structure is achieved through a process known as activation. Activation involves subjecting carbonaceous materials, such as coal, wood, or coconut shells, to high temperatures in the presence of steam or specific chemicals. This activation process generates tiny pores and significantly increases the carbon's surface area. Consequently, the carbon becomes adept at capturing and eliminating impurities from gases or liquids. The activated carbon's high adsorption capacity attracts impurities like organic compounds, volatile organic compounds (VOCs), and certain heavy metals to its surface. In the production of activated carbon filters, the activated carbon is commonly molded into a granular or powdered state and then packed into a filter medium, such as a mesh or a cartridge. The filter medium functions as a supportive structure for the activated carbon, enabling the passage of air or water while effectively capturing and adsorbing impurities. Activated carbon filters excel at eliminating a wide array of contaminants, including chlorine, volatile organic compounds (VOCs), odors, and specific heavy metals. Consequently, these filters greatly enhance the quality of water and air by reducing pollutants and improving odor control. Furthermore, the versatility of activated carbon allows for customization based on the specific application. For instance, activated carbon can be infused with specific chemicals to heighten its adsorption capacity for particular contaminants. It can also be specially treated to target pollutants like mercury or arsenic. In conclusion, the utilization of carbon in the production of activated carbon filters stems from its porous structure and exceptional adsorption properties. These filters play a vital role in numerous industries and applications, effectively eliminating impurities from water and air, improving their quality, and ultimately benefiting environmental and human health.

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