Solar Energy - Best Quality Flexible Solar Cells with CE, RoHS, ICE Certification

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Loading Port:: Tianjin

Payment Terms:: TT or LC

Min Order Qty:: 10 m²

Supply Capability:: 500 m²/month

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Quick Details

				Model Number:	ANM250M-96
Material:	Monocrystalline Silicon	Size:	1575108250	Number of Cells:	250
Max. Power:	250	Certificate:	CE, ROHS, ICE	Warranty:	5 years
keywords:	flexible solar cell	Short circuit current(Isc):	5.95	Open circuit voltage(Voc):	58.40
Current at max power(Imp):	5.28	Voltage at max power(Vmp):	47.33	Max. Power (Pm):	250
Operate Temp. scope:	-40~85	Impact Resistance:	AC2000V; DC3000V

Packaging & Delivery

Packaging Detail:	standard export package suitable for long seavoyage and tough handling
Delivery Detail:	10-25 days depending on order quantity

Specifications

flexible solar cell
1.Monocrystalline
2.Solar Panel Factory
3.CE, ROHS, IEC
4. 5yrs warranty

Types of Solar Cell

Current solar cells are classified into several types according to the material, structure and the manufacturing method used. Wherein the multi-crystalline silicon solar cell refers to the silicon semiconductor substrate is a monocrystalline silicon solar cells and a raw material polycrystalline silicon solar cells; in addition to amorphous silicon-based solar cells, such batteries with the liquid crystal panel prepared by the same film is based, it is deposited on a silicon substrate instead of a glass substrate made of amorphous silicon.

Monocrystalline silicon solar cells are formed on a monocrystalline silicon substrate, but also the conversion efficiency up to 20% of the products, with excellent performance and reliability characteristics. However, as the price of raw materials expensive silicon substrate, the higher cost of electricity per watt. Although polycrystalline silicon solar cell conversion efficiency is lower than that of silicon solar cells, with the advantage of cheap cost.

Most substrate monocrystalline and polycrystalline silicon solar cell used is from the slowly cooled liquefied silicon after heating the crystalline silicon block (ingot) cut out of the sheet manufacturing. Forming a polycrystalline silicon solar cell uses polycrystalline silicon ingots; forming a single crystal silicon solar cell uses single crystal silicon ingot. Compared with polysilicon ingot, single crystal silicon ingot production efficiency is lower, therefore more it is more expensive.

The more cutting thin silicon substrate, the silicon ingot obtained by the same base plate number, the more, the lower the cost. However, there are also disadvantages sheet cut easily broken during the manufacturing process. So how global materials manufacturers around the sheet during cutting and increase yield, reduce cost in a fierce competition.

Using a thin film of amorphous silicon solar cell production method is different significantly reduce the amount of silicon used, and vacuum evaporation using a manufacturing process suitable for mass production, as compared with the crystalline type can significantly reduce costs, but the amorphous silicon solar cell lower conversion efficiency is only about 10%. Such batteries silicon feedstock prices of the period of concern, but with the tight silicon market weaker than expected growth in its share.

Q: How do solar cells perform in areas with frequent earthquakes?: Solar cells can perform well in areas with frequent earthquakes, as they are designed to withstand a certain level of structural stress. However, the installation and mounting of solar panels should be done with proper engineering considerations to ensure their stability during seismic events. Additionally, regular inspections and maintenance may be required to address any potential damages caused by earthquakes.

Q: How do solar cells perform in areas with high levels of water pollution?: Solar cells can be adversely affected by high levels of water pollution. Water pollution can reduce the efficiency of solar cells by blocking sunlight and reducing the amount of light that reaches the surface of the cells. Additionally, pollutants in the water can corrode the surfaces of solar cells and damage their components, leading to a decrease in performance and lifespan. Therefore, in areas with high levels of water pollution, solar cells may not perform optimally and require more frequent maintenance and cleaning to ensure their effectiveness.

Q: What is the role of solar cells in powering remote surveillance systems?: Solar cells play a crucial role in powering remote surveillance systems by harnessing the sun's energy and converting it into electricity. This renewable energy source allows surveillance systems to operate in remote locations without relying on traditional power grids or expensive fuel sources. Solar cells provide a sustainable and reliable power supply, ensuring continuous operation of surveillance equipment, including cameras, sensors, and communication devices, even in areas without access to electricity.

Q: How do solar cells handle electromagnetic fields from power lines?: Solar cells are designed to convert sunlight into electricity, and they do not have the ability to handle or interact with electromagnetic fields from power lines.

Q: Can solar cells be used to power air conditioning systems?: Yes, solar cells can be used to power air conditioning systems. However, the efficiency and capacity of the solar cells, as well as the size of the air conditioning system, need to be considered to ensure sufficient power supply.

Q: Can solar cells be used for powering water pumps?: Yes, solar cells can be used for powering water pumps. Solar-powered water pumping systems utilize photovoltaic cells to convert sunlight into electricity, which can then be used to power water pumps. These systems are environmentally friendly, cost-effective, and reliable, making them a popular choice for remote areas or locations where grid electricity is not available.

Q: Can solar cells be used in desert regions?: Yes, solar cells can be effectively used in desert regions. Deserts have abundant sunlight, which is essential for generating solar energy. Additionally, the arid climate conditions in deserts provide less cloud cover and minimal air pollution, resulting in higher efficiency and output of solar cells.

Q: Can solar cells be used in disaster relief efforts?: Yes, solar cells can be used in disaster relief efforts. They are a reliable and sustainable source of energy that can provide electricity in areas affected by natural disasters, where power grids may be damaged or non-existent. Solar cells can be used to power emergency lighting, communication systems, medical equipment, and water purification systems, among other essential needs. Additionally, solar energy can be harnessed to charge mobile devices and provide a means of communication and access to information during these critical times. Overall, solar cells are a valuable tool in disaster relief efforts, offering a clean and renewable energy solution to support affected communities.

Q: How do solar cells impact job creation?: Solar cells impact job creation by creating a demand for skilled workers in the solar industry. As the adoption of solar energy grows, more jobs are created in manufacturing, installation, maintenance, and research and development of solar cells. This not only helps stimulate the economy but also provides employment opportunities for individuals in a rapidly expanding sector.

Q: Do solar cells work at night or in low light conditions?: Solar cells do not work at night as they require sunlight to generate electricity. In low light conditions, their efficiency decreases significantly, but they can still produce some electricity, although at a much lower rate.

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