Carbon Fiber/ Fiberglass Tube/Pipe
- Ref Price:
-
- Loading Port:
- China Main Port
- Payment Terms:
- TT or LC
- Min Order Qty:
- 2 Ton m.t.
- Supply Capability:
- 1000Ton m.t./month
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Specifications of Carbon Fiber/ Fiberglass Tube
1. Material: carbonized polyacrylonitrile fiber
2. Filament number:6k
3. Fiber type: T300
4. Tensile strength: 360kgf/mm2
General Data of Carbon Fiber/ Fiberglass Tube
Weaving Style: Unidirectional, Plain, Twill
Input Available: 3k, 6k, 12k Carbon fiber
Weight: 15 0 ~ 600g / m2
Roll length: To be specified
Storage of Carbon Fiber/ Fiberglass Tube
It is recommended that the carbon fiber fabric are stored in a cool and dry environment. Recommended temperature range of storage is between 10 ~ 30 degree and relative humidity between 50 ~ 75%.The carbon fiber fabric should remain in the packaging until just prior to use.
Packaging & Delivery of Carbon Fiber/ Fiberglass Tube
Product is manufactured in form of a roll wound on a paper tube and then packed in a plastic film and placed within a cardboard carton. Rolls can be loaded into a container directly or on pallets.
Packaging Detail: carton
Delivery Detail: within 20 days
- Q: How does carbon affect the formation of acidification in lakes?
- Lakes undergo acidification due to the significant role played by carbon dioxide (CO2). Human activities, such as burning fossil fuels, release carbon dioxide into the atmosphere. This carbon dioxide can then be absorbed by lakes, resulting in the formation of carbonic acid (H2CO3), a weak acid. When carbonic acid interacts with water, it dissociates into hydrogen ions (H+) and bicarbonate ions (HCO3-). The increase in hydrogen ions causes a decrease in pH levels, making the water more acidic. This process is commonly referred to as acidification. The acidification of lakes can have detrimental effects on aquatic ecosystems. It negatively impacts the physiology and behavior of various species, including fish, amphibians, and invertebrates. Furthermore, the eggs and larvae of these organisms can be damaged by acidic waters, hindering their growth and survival. Acidification also has the potential to disrupt the composition and abundance of phytoplankton, which are vital for maintaining the overall health of the ecosystem. Additionally, high levels of acidity can result in the leaching of toxic metals, such as aluminum, from the surrounding soil and rocks. These toxic metals then dissolve in the water, posing an additional threat to aquatic organisms. Acidification can also disrupt the nutrient cycles in lakes, ultimately affecting the availability of essential nutrients for plants and animals. To summarize, 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 imperative to reduce carbon emissions and mitigate the effects of acidification to safeguard the health and diversity of lake ecosystems.
- Q: What are the consequences of increased carbon emissions on urban areas?
- Increased carbon emissions have numerous consequences on urban areas. Firstly, it leads to a rise in air pollution, contributing to respiratory issues and increased health risks for the population. Additionally, carbon emissions contribute to the greenhouse effect, leading to higher temperatures and exacerbating the urban heat island effect, which can result in discomfort, heat-related illnesses, and increased energy demands for cooling. Moreover, increased carbon emissions contribute to climate change, leading to more frequent and intense extreme weather events like storms and heatwaves, which pose significant threats to urban infrastructure, public safety, and economic stability. Overall, the consequences of increased carbon emissions on urban areas are detrimental to both the environment and human well-being.
- Q: Where are carbon fiber sheets and carbon fiber sheets used?
- Fiber cloth can be made into fiberboard. You'd better say the actual product.
- Q: What are the impacts of carbon emissions on the stability of river ecosystems?
- The stability of river ecosystems is significantly affected by carbon emissions, which have various consequences. One of the main outcomes of carbon emissions is the rise in greenhouse gases in the atmosphere, resulting in global warming. This increase in temperature directly and indirectly impacts river ecosystems. To begin with, higher temperatures can modify the physical characteristics of rivers and impact the availability of oxygen in the water. Warmer water holds less dissolved oxygen, which can be harmful to aquatic organisms like fish and invertebrates that depend on oxygen for survival. The decrease in oxygen levels can lead to a decrease in biodiversity and even cause fish to die. Furthermore, climate change caused by carbon emissions can disrupt the natural hydrological cycle. Changes in precipitation patterns can lead to droughts or floods, causing fluctuations in river flow. These alterations can affect the reproductive and migration patterns of many aquatic species, disturbing their life cycles and reducing their populations. Additionally, modified river flows can also affect the stability of riverbank and riparian habitats, resulting in erosion and habitat loss. Moreover, increased carbon emissions contribute to ocean acidification. When water absorbs carbon dioxide, it forms carbonic acid, which lowers the pH of the water. Acidic waters can have harmful effects on aquatic life, including shellfish, corals, and other organisms that calcify. River ecosystems are interconnected with coastal and marine ecosystems, so the consequences of ocean acidification can indirectly impact river ecosystems through the food chain. Furthermore, carbon emissions contribute to the deposition of air pollutants, such as nitrogen and sulfur compounds, onto land and water bodies. These pollutants can be carried by rainfall into rivers, leading to increased nutrient levels and eutrophication. Excessive nutrients can cause harmful algal blooms, deplete oxygen levels, and create dead zones, further disturbing the balance of river ecosystems. In conclusion, the stability of river ecosystems is profoundly impacted by carbon emissions. Rising temperatures, altered hydrological cycles, ocean acidification, and increased nutrient levels all contribute to the degradation of these ecosystems. It is essential to reduce carbon emissions and adopt sustainable practices to mitigate these impacts and preserve the health and stability of river ecosystems.
- Q: How does carbon affect the formation of smog?
- Smog formation heavily relies on carbon's role, particularly through carbon monoxide (CO) and volatile organic compounds (VOCs). Burning fossil fuels, like in vehicles, power plants, or industrial processes, releases carbon into the atmosphere as CO and VOCs. These carbon emissions, especially in densely populated areas, contribute to smog formation. Smog consists of various air pollutants, primarily ground-level ozone, formed when nitrogen oxides (NOx) and VOCs react in sunlight's presence. Ground-level ozone formation starts with carbon monoxide. It reacts with nitrogen oxides and sunlight, resulting in ozone, a key smog component. VOCs, on the other hand, combine with nitrogen oxides in sunlight to create more ground-level ozone. Moreover, carbon particles, also called black carbon or soot, can contribute to smog formation. These particles absorb sunlight, heating the surrounding air and causing temperature inversions. These inversions trap pollutants near the ground, preventing dispersion and worsening smog formation. Controlling and preventing smog formation relies heavily on reducing carbon emissions. Implementing cleaner technologies, such as catalytic converters in vehicles and cleaner fuels, helps decrease CO and VOC release. Additionally, promoting renewable energy sources and reducing reliance on fossil fuels significantly reduces carbon emissions, thereby mitigating smog formation.
- Q: What is carbon neutral manufacturing?
- Manufacturing goods while minimizing or offsetting carbon emissions is what carbon neutral manufacturing is all about. The goal is to reduce greenhouse gas emissions at every stage of the manufacturing process, from obtaining raw materials to disposing of finished products. Achieving this involves various measures, such as improving energy efficiency, utilizing renewable energy sources, implementing sustainable practices, and investing in carbon offset projects. To become carbon neutral, manufacturers typically start by conducting a comprehensive assessment of their carbon footprint. This involves identifying and quantifying all emissions generated in their operations, including both direct emissions from manufacturing processes and indirect emissions from energy sources. Once emissions are measured, manufacturers can devise strategies to decrease their carbon footprint. Common methods for achieving carbon neutrality in manufacturing include optimizing energy consumption through efficient equipment and technologies, adopting renewable energy sources like solar or wind power, and implementing waste reduction and recycling programs. Additionally, manufacturers can invest in carbon offset projects that aim to reduce or eliminate greenhouse gas emissions, such as reforestation or renewable energy initiatives. By implementing these measures and offsetting any remaining emissions, manufacturers can achieve carbon neutrality. This not only helps combat climate change by reducing overall carbon footprints but also demonstrates a commitment to sustainability and environmental responsibility. Carbon neutral manufacturing is an important step towards transitioning to a low-carbon economy and creating a more sustainable future.
- 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.
- Q: What is carbon nanomembrane?
- Carbon nanomembrane is a thin, flexible sheet made up of carbon atoms arranged in a precise pattern. It has unique properties such as high strength, electrical conductivity, and impermeability, making it suitable for various applications like filtration, energy storage, and biomedical devices.
- 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 are the advantages of carbon-based fuel cells?
- Carbon-based fuel cells offer several advantages that make them a promising technology for the future. Firstly, they have a higher energy density compared to conventional batteries, meaning they can store and deliver more energy per unit weight. This allows for longer operating times and greater power output, which is particularly beneficial in applications requiring high power density and long-range capabilities, like electric vehicles. Secondly, carbon-based fuel cells boast a faster refueling time than conventional batteries. While it can take hours to recharge a battery, refueling a carbon-based fuel cell can be done in a matter of minutes. This significant advantage reduces refueling downtime and enables more convenient and efficient usage of the technology. Furthermore, carbon-based fuel cells have a lower environmental impact compared to traditional combustion engines. They produce only water and heat as byproducts, making them clean and environmentally friendly. This is in contrast to internal combustion engines that emit harmful pollutants contributing to air pollution and climate change. Another advantage of carbon-based fuel cells is their versatility and compatibility with existing infrastructure. They can easily be integrated into current energy systems, facilitating a smooth transition from fossil fuels to cleaner energy sources. This compatibility makes carbon-based fuel cells a viable option for various applications, from portable electronics to residential power generation. Lastly, carbon-based fuel cells have the potential to contribute to energy independence. As carbon-based fuels can be derived from renewable sources like biomass or waste, they offer a sustainable and domestically sourced energy solution. This reduces dependence on foreign oil and enhances energy security for countries. In conclusion, the benefits of carbon-based fuel cells include higher energy density, faster refueling time, lower environmental impact, compatibility with existing infrastructure, and the potential for energy independence. With these advantages, carbon-based fuel cells have the potential to revolutionize the energy landscape and provide a sustainable and efficient alternative to conventional energy sources.
We are a modernized enterprise .
1. Manufacturer Overview
| Location | Shanghai, China |
| Year Established | 1995 |
| Annual Output Value | Above US$ 20，000 |
| Main Markets | Mid East; Eastern Europe; North America |
| Company Certifications | ISO 9002:2000 |
2. Manufacturer Certificates
| a) Certification Name | |
| Range | |
| Reference | |
| Validity Period |
3. Manufacturer Capability
| a) Trade Capacity | |
| Nearest Port | Shanghai |
| Export Percentage | 20% |
| No.of Employees in Trade Department | 100 People |
| Language Spoken: | Chinese |
| b) Factory Information | |
| Factory Size: | Above 100,000 square meters |
| No. of Production Lines | Above 5 |
| Contract Manufacturing | OEM Service Offered; Design Service Offered |
| Product Price Range | Average |
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Carbon Fiber/ Fiberglass Tube/Pipe
- Ref Price:
-
- Loading Port:
- China Main Port
- Payment Terms:
- TT or LC
- Min Order Qty:
- 2 Ton m.t.
- Supply Capability:
- 1000Ton m.t./month
OKorder Service Pledge
Quality Product, Order Online Tracking, Timely Delivery
OKorder Financial Service
Credit Rating, Credit Services, Credit Purchasing
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