• Polycrystalline Solar Cell High Quality 16.80-18.00 Effy System 1
  • Polycrystalline Solar Cell High Quality 16.80-18.00 Effy System 2
Polycrystalline Solar Cell High Quality 16.80-18.00 Effy

Polycrystalline Solar Cell High Quality 16.80-18.00 Effy

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Loading Port:
Shanghai
Payment Terms:
TT or LC
Min Order Qty:
1000 pc
Supply Capability:
1000000 pc/month

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Solar Cells:

solar cells, when struck by photons of light from the sun, generates an electrical current which can then be used to power DC or AC electrical loads.
A solar cell is made of silicon. Computer chips are made of this same material. Basically, when light strikes the surface of a solar cell some of it is absorbed into the silicon. This light energy bumps the electrons loose and causes energy to flow

Solar cells is made by solar wafer, it has three categories of solar cell right now, monocrystalline polycrystalline and thin film,These cells are entirely based around the concept of PN junction, which is the critical part of solar module, it is the part that can convert the light energy into electricity, the thickness is from 180um to 200um, with even busbars to conduct electricity, textured cell can decrease diffuse reflection; they are often electrically connected and encapsulated as a module. Photovoltaic modules often have a sheet of glass on the front (sun up) side, allowing light to pass while protecting  semiconductor wafers from abrasion and impact due to wind-driven debris, rain, hail, etc. Solar cells are also usually connected in series in modules, creating an additive voltage. Connecting cells in parallel will yield a higher current;With high quality and stable quality. Our Cells can greatly improve the performance of Solar Modules.

Specifications


Efficiency(%)

18.00

17.80

17.60

17.40

17.20

16.80

Pmpp(W)

4.33

4.29

4.24

4.19

4.14

4.09

Umpp(V)

0.530

0.527

0.524

0.521

0.518

0.516

Impp(A)

8.159

8.126

8.081

8.035

7.990

7.938

Uoc(V)

0.633

0.631

0.628

0.625

0.623

0.620

Isc(A)

8.709

8.677

8.629

8.578

8.531

8.478

Solar Cells Advantage:

•  High efficiency and stable performance in photovoltaic conversion.
•  Advanced diffusion technique ensuring the homogeneity of energy conversion efficiency of the cell.
•  Advanced PECVD film forming, providing a dark blue silicon nitride anti-reflection film of homogenous color and attractive         appearance.
•  High quality metal paste for back surface and electrode, ensuring good conductivity, high pulling strength and ease of soldering.
•  High precision patterning using screen printing, ensuring accurate busbar location for ease with automatic soldering a laser cutting. 

Features:

1. High conversion efficiencies resulting in superior power output performance

2. Outstanding power output even in low light or high temperature conditions

3. Optimized design for ease of soldering and lamination

4. Long-term stability, reliability and performance

5. Low breakage rate

6. Color uniformity

Polycrystalline Solar Cell High Quality 16.80-18.00 Effy

FAQ

We have organized several common questions for our clients,may help you sincerely:

①What price for each watt?

It depends on the efficiency of the solar cell, quantity, delivery date and payment terms.

②How long can we receive the product after purchase?

In the purchase of product within three working days, We will arrange the factory delivery as soon as possible. The pecific time of receiving is related to the state and position of customers.Commonly 7 to 10 working days can be served.

③Can you provide the peripheral products of the solar panels, such as the battery, controller, and inverter? If so, can you tell me how do they match each other?

Yes, we can, we have two companies for solar region, one is CNBM International, the other is CNBM engineering Co.

We can provide you not only the solar module but also the off grid solar system, we can also provide you service with on grid plant.

④What is your warranty of solar cell?

 Our product can promise lower than 0.3% open box crack, we support claim after opening the box if it has crackm color difference or sth, the buyer should give pictures immediately, we can not accept the claim after the solar cell has assembled to solar panel.

• Timeliness of delivery

• ⑤How do you pack your products?

We have rich experience on how to pack the solar cell to make sure the safety on shipment, we could use wooden box or pallet as buyer's preference.


How to Make Solar Cell in Home

Solar cells have a huge usage in home. If you want to get a solar cell at home, you can light up your little things like a clock, radio, etc. And here some steps to make solar cells . First, take a copper sheet and cut it into equal parts. After cutting, you have 2 pieces of the same size. Step2: Heat up one piece of copper sheet completely using a burner or gas stove. Heat up 20 to 30 minutes. Then place it undisturbed to cool down. Step3: Attach a piece of copper wire to it. Clear that place where you will attach copper wire to it. Step 4: Take another piece of copper sheet and attach it to another piece of copper wire. Step5: Take a plastic bottle and cut it half. In the bottom part of bottle make a solution of hot water and salt. Step6: Paste burned copper sheet in the bottle. Only copper sheet touched with water not copper wire. Step7: In opposite direction paste another piece of copper sheet. Step8: Now your solar cell is ready to be attached to anything to the wire which is attached to copper sheets.

How to Build your own Solar Cell

Step 1: Stain the Titanium Dioxide with the Natural Dye: Stain the white side of a glass plate which has been coated with titanium dioxide (TiO2). This glass has been previously coated with a transparent conductive layer (SnO2), as well as a porous TiO2 film. Crush fresh blackberries, raspberries, pomegranate seeds, or red Hibiscus tea in a tablespoon of water. Soak the film for 5 minutes in this liquid to stain the film to a deep red-purple color. If both sides of the film are not uniformly stained, then put it back in the juice for 5 more minutes. Wash the film in ethanol and gently blot it dry with a tissue.
Step 2: Coat the Counter Electrode: The solar cell needs both a positive and a negative plate to function. The positive electrode is called the counter electrode and is created from a "conductive" SnO2 coated glass plate. A Volt - Ohm meter can be used to check which side of the glass is conductive. When scratched with a finger nail, it is the rough side. The "non-conductive" side is marked with a "+." Use a pencil lead to apply a thin graphite (catalytic carbon) layer to the conductive side of plate's surface.
Steps 3: Add the Electrolyte and Assemble the Finished Solar Cell: The Iodide solution serves as the electrolyte in the solar cell to complete the circuit and regenerate the dye. Place the stained plate on the table so that the film side is up and place one or two drops of the iodide/iodine electrolyte solution on the stained portion of the film. Then place the counter electrode on top of the stained film so that the conductive side of the counter electrode is on top of the film. Offset the glass plates so that the edges of each plate are exposed. These will serve as the contact points for the negative and positive electrodes so that you can extract electricity and test your cell. Use the two clips to hold the two electrodes together at the corner of the plates. The output is approximately 0.43 V and 1 MA /cm2 when the cell is illuminated in full sun through the TiO2 side.

Q:How are solar cells integrated into building designs?
Solar cells can be integrated into building designs in a variety of ways. They can be incorporated into the roof or facade of a building, where they function as both a renewable energy source and a structural element. Additionally, solar cells can be installed as shading devices, such as solar awnings or sunshades. This integration allows buildings to generate electricity from the sun while maintaining an aesthetically pleasing design.
Q:How do solar cells perform in areas with limited sunlight?
Solar cells generally perform less efficiently in areas with limited sunlight. This is because solar cells rely on sunlight to convert light energy into electricity. In areas with limited sunlight, such as regions with frequent cloud cover or high latitudes, solar cells may generate less electricity or even fail to produce any power at all. However, advancements in solar cell technology, such as the development of more efficient and sensitive materials, have improved their performance in low-light conditions to some extent.
Q:Are there any books in the market t about solar cells and their applications?
There are a lot of resources about solar cells on line, and they are cheaper.
Q:Can solar cells be used to power an entire household?
Yes, solar cells can be used to power an entire household. With advancements in solar technology and proper installation, a solar power system can generate enough electricity to meet the energy needs of a household, especially when combined with energy storage solutions. However, the feasibility and effectiveness of using solar cells to power an entire household depend on various factors such as the size of the solar system, energy consumption patterns, geographic location, and available sunlight.
Q:What is the impact of partial shading on solar cell performance?
Partial shading on solar cell performance can have a significant negative impact. When a solar cell is partially shaded, even a small portion of shading can reduce its overall power output. This is because shaded cells create voltage mismatches within the solar panel, leading to decreased current flow and overall efficiency. Additionally, partial shading can also cause hotspots, which can damage the solar cells and reduce their lifespan. Therefore, it is crucial to design solar systems carefully, avoiding any shading to ensure optimal performance and maximize energy generation.
Q:What is the impact of solar cells on reducing greenhouse gas emissions?
Solar cells have a significant impact on reducing greenhouse gas emissions as they generate clean and renewable energy from sunlight, without emitting any greenhouse gases. By replacing fossil fuel-based electricity generation, solar cells help reduce the carbon dioxide and other harmful emissions that contribute to climate change. This transition towards solar energy plays a crucial role in mitigating global warming and creating a more sustainable future.
Q:Can solar cells be used on rooftops?
Yes, solar cells can definitely be used on rooftops as they have the ability to convert sunlight into electricity, making them a great source of renewable energy for residential and commercial buildings.
Q:How do solar cells perform in areas with high levels of air pollution and dust?
Solar cells perform less efficiently in areas with high levels of air pollution and dust. The particles in the air can block sunlight from reaching the solar cells, reducing their ability to convert sunlight into electricity. This can result in a decrease in overall energy production and efficiency of the solar panels. Regular cleaning and maintenance of the solar cells can help mitigate the negative impact of air pollution and dust on their performance.
Q:Can solar cells be used for powering remote mining operations?
Yes, solar cells can be used for powering remote mining operations. Solar power is a viable and sustainable energy source that can be harnessed in remote areas where access to traditional electricity grids is limited or non-existent. Installing solar panels at mining sites can provide a reliable and cost-effective source of power for various operations such as machinery, lighting, and communication systems. Additionally, solar power reduces dependence on fossil fuels, minimizing environmental impact and promoting clean energy solutions.
Q:What are the different sizes of solar cells?
Solar cells come in various sizes, ranging from small ones typically used in calculators and devices, to larger ones used in residential and commercial applications. The sizes of solar cells can vary depending on the specific purpose and power output required.

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