• 6 inch Multi Solar Silicon Wafer -- 156 x 156 mm by Solar Silicon Wafer Manufacturers System 1
  • 6 inch Multi Solar Silicon Wafer -- 156 x 156 mm by Solar Silicon Wafer Manufacturers System 2
  • 6 inch Multi Solar Silicon Wafer -- 156 x 156 mm by Solar Silicon Wafer Manufacturers System 3
6 inch Multi Solar Silicon Wafer -- 156 x 156 mm by Solar Silicon Wafer Manufacturers

6 inch Multi Solar Silicon Wafer -- 156 x 156 mm by Solar Silicon Wafer Manufacturers

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Loading Port:
China main port
Payment Terms:
TT OR LC
Min Order Qty:
100 watt
Supply Capability:
10000 watt/month

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6 Inch Multi Solar Cell -- 156 x 156 mm

FEATURES
`Long Service Life
`High Efficiency Solar Cells
`Special Aluminum Frame Design
`High Transmission, Low Iron Tempered Glass
`Advanced Cell Encapsulation

Solar Module Specifications

  Mono 80W—100W

Module

Type (36 Series)

Encapsulation

Glass/EVA/Cells/EVA/TPT

Parameters

SNM-M80(36)

SNM-M85(36)

SNM-M90(36)

SNM-M95(36)

SNM-M100(36)

Max power

Pm(W)

80W

85W

90W

95W

100W

Tolerance

+/-3%

Open circuit voltage

Voc(V)

21.2

21.8

21.8

22.3

22.6

Short circuit current

Isc(A)

4.84

5.00

5.30

5.44

5.68

Max. power voltage

Vmp(V)

17.5

18.0

18.0

18.5

18.5

Max. power current

Imp(A)

4.57

4.72

5.00

5.14

5.40

Dimensions

(L*W*H)

1200x540x35mm

Net Weight

(kg)

9

Max. system voltage

(V)

1000VDC

Operate Temp. Scope

-40/+85'C

Resistance

227g steel ball fall down from 1m height and 120m/s wind

Warranty

Pm is no less 90% in 10 years and no less 80% in 25 years

STC

(Standard Test Condition: 1000W/m2, AM1.5, and 25'C)

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6 Inch Multi Solar Cell -- 156 x 156 mm

6 Inch Multi Solar Cell -- 156 x 156 mm

6 Inch Multi Solar Cell -- 156 x 156 mm

Q: What is the expected lifespan of a solar silicon wafer in a solar panel?
The expected lifespan of a solar silicon wafer in a solar panel can vary, but on average, they are designed to last for around 25 to 30 years.
Q: What are the different wafer orientations used in solar silicon wafer production?
There are three main wafer orientations used in solar silicon wafer production: <100>, <111>, and <110>. The <100> orientation is the most commonly used, as it provides a balance between cost, efficiency, and ease of production. The <111> orientation is known for its high efficiency, but it is less commonly used due to its higher cost and more complex manufacturing process. The <110> orientation is used in specific applications where superior mechanical strength is required. Overall, the choice of wafer orientation depends on the desired balance between cost, efficiency, and specific application requirements.
Q: How are solar silicon wafers packaged and shipped?
Solar silicon wafers are typically packaged and shipped in protective containers or trays. These containers are designed to securely hold the wafers in place and protect them from damage during transportation. The wafers are carefully stacked in the packaging with appropriate spacing to prevent any contact or scratching. Additionally, the packaging may include layers of foam or other cushioning materials to provide further protection. Once packaged, the wafers are typically shipped in bulk using suitable shipping methods, such as air freight or specialized carriers, to ensure safe delivery to their destination.
Q: What is the meaning of the wafer (100), the crystal orientation index or the crystal plane index?Also (1100 and (111) which direction and angle should be cut?
The coordinate system is set up in the crystal cellIs the coordinate of the direction vector
Q: What is the average lifespan of a solar silicon wafer?
The average lifespan of a solar silicon wafer is around 25 to 30 years.
Q: Can solar silicon wafers be used in hybrid solar systems?
Yes, solar silicon wafers can be used in hybrid solar systems. Hybrid solar systems combine different types of renewable energy sources, such as solar and wind, to generate electricity. Solar silicon wafers can be used to capture sunlight and convert it into electrical energy in these hybrid systems, making them an essential component for solar power generation.
Q: Can solar silicon wafers be used in off-grid solar applications?
Yes, solar silicon wafers can be used in off-grid solar applications. These wafers are commonly used in photovoltaic cells to convert sunlight into electricity, making them suitable for generating power in remote locations where access to the electrical grid is limited or nonexistent.
Q: Can solar silicon wafers be used in solar-powered wearable devices?
Yes, solar silicon wafers can be used in solar-powered wearable devices. These wafers are commonly used to produce solar cells, which can be integrated into wearable devices to harness solar energy and power them. This allows for a sustainable and renewable energy source for these devices.
Q: What is the role of back surface field (BSF) on solar silicon wafers?
The role of back surface field (BSF) on solar silicon wafers is to enhance the efficiency and performance of the solar cells. It acts as a reflective layer that helps to minimize the recombination of charge carriers at the back surface of the wafer, thus increasing the overall electrical conductivity. This allows for a higher collection of electrons and a reduction in power losses, resulting in improved solar cell efficiency and power output.
Q: How do solar silicon wafers affect the aesthetics of buildings?
Solar silicon wafers can have both positive and negative effects on the aesthetics of buildings. On one hand, solar wafers can be integrated into building designs in a way that enhances their visual appeal, creating a sleek and modern look. This can be achieved through various installation methods, such as frameless or semi-transparent solar panels, allowing for a seamless integration with the building's architecture. On the other hand, traditional solar wafers can appear bulky and obstructive, detracting from the overall aesthetics of a building. However, advancements in solar technology have led to the development of more aesthetically pleasing options, such as thin-film solar cells, which are flexible and can be applied directly onto building surfaces. These innovations offer greater design flexibility and minimize the impact on the building's appearance. Ultimately, the aesthetic impact of solar silicon wafers on buildings depends on the design choices made and the integration methods employed.

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