• High Power Solar Cells - Factor Directly Sale 285W Poly Silicon Solar Module CNBM System 1
  • High Power Solar Cells - Factor Directly Sale 285W Poly Silicon Solar Module CNBM System 2
High Power Solar Cells - Factor Directly Sale 285W Poly Silicon Solar Module CNBM

High Power Solar Cells - Factor Directly Sale 285W Poly Silicon Solar Module CNBM

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Loading Port:
Qingdao
Payment Terms:
TT OR LC
Min Order Qty:
10 set
Supply Capability:
300000 set/month

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Quick Details

Place of Origin:

China (Mainland)

Brand Name:

CNBM

Model Number:

285W solar module

Material:

Polycrystalline Silicon

Size:

1956*992*50mm

Number of Cells:

72

Max. Power:

285W

Cell Size(mm):

156*156

Tolerance:

0~3%

Cells Number(pcs):

6*12

Weight(Kg):

25

Max.Series Fuse Rating (A):

15

Max.System Voltage-IEC(V):

1000

 

 Factor Directly Sale 285W Poly Silicon Solar Module CNBM

Factor Directly Sale 285W Poly Silicon Solar Module CNBM

Factor Directly Sale 285W Poly Silicon Solar Module CNBM

 

Polycrystalline Solar Module

 

XH250P(72)/ XH275P(72)/ XH300P(72) 

Models

XH250P(72)

XH285P(72)

XH300P(72)

Max. Power (Pmax)

250Wp

285Wp

300Wp

Optimum Operating Voltage (Vm)

34.8V

35.7V

35.9V

Optimum Operating Current (Im)

7.18A

7.77 A

8.08A

Open-circuit Voltage (Voc)

43.8V

35.4 V

44.4V

Short-circuit Current (Isc)

8.04A

8.24 A

8.62A

Cells efficiency

14.6%

15.8%

16.8%

Dimension   L×W×H (mm)

1956×992×50mm

1956×992×50

1956×992×50

Power Tolerance (Pmax)

0 ~ +3%

0 ~ +3%

0 ~ +3%

Numbers of cells

60pcs poly solar cell 

156×156mm

72pcs poly solar cell 

156×156mm

72pcs poly solar cell 

156×156mm

weight

25kg

25kg

25kg

Max system voltage

1000V DC

1000V DC

1000V DC

Temperature cycling range

-40℃ ~ +85

-40℃ ~ +85

-40℃ ~ +85

 

Q: Can solar cells be used for powering transportation infrastructure?
Yes, solar cells can be used for powering transportation infrastructure. Solar-powered electric vehicles (EVs) are becoming increasingly popular, utilizing solar panels to charge their batteries and power their engines. Additionally, solar-powered charging stations can be installed along roads, highways, and parking lots to provide renewable energy for electric vehicles. These advancements in solar technology contribute to a more sustainable and environmentally friendly transportation system.
Q: Are there any subsidies or incentives for installing solar cells?
Yes, there are subsidies and incentives available for installing solar cells. Many governments and local authorities offer financial incentives such as tax credits, grants, and rebates to encourage the adoption of solar energy. Additionally, some utility companies provide feed-in tariffs or net metering programs, which allow solar system owners to sell excess electricity back to the grid or receive credits on their energy bills. These subsidies and incentives aim to make solar installations more affordable and promote the transition to clean and renewable energy sources.
Q: Can solar cells be used in remote sensing devices?
Yes, solar cells can be used in remote sensing devices. Solar cells are capable of converting sunlight into electricity, making them an ideal power source for remote sensing devices that require continuous operation in areas where traditional power sources are unavailable or impractical to use.
Q: How do solar cells handle power factor correction?
Solar cells do not handle power factor correction directly. Power factor correction is typically carried out by other electronic devices such as inverters or power converters that are connected to solar cells. These devices are responsible for converting the DC power generated by solar cells into AC power suitable for use in homes or industries. Power factor correction is achieved through the use of various techniques such as active or passive power factor correction circuits integrated within these devices.
Q: Where can I find more information about the work process of solar cells
The working process of solar cell is a bit complicated to describle.
Q: What is the impact of solar cell installations on job creation?
The impact of solar cell installations on job creation is significant. The growing demand for renewable energy has created a surge in the solar industry, leading to the creation of numerous job opportunities. Solar cell installations require skilled workers for design, installation, maintenance, and manufacturing, resulting in a wide range of employment opportunities across various sectors. Moreover, the shift towards solar energy creates a ripple effect, stimulating the local economy and supporting job growth in related industries such as construction, engineering, and manufacturing of solar components. Overall, solar cell installations have a positive impact on job creation by fostering a sustainable and green workforce.
Q: Can solar cells store energy for later use?
No, solar cells cannot store energy for later use as they directly convert sunlight into electricity when exposed to sunlight. However, the electricity generated by solar cells can be stored in batteries or other energy storage systems for later use.
Q: How do solar cells perform in desert environments?
Solar cells perform exceptionally well in desert environments due to the high levels of sunlight and low humidity. The arid conditions and lack of cloud cover ensure that solar panels receive maximum exposure to sunlight, resulting in increased energy production. Additionally, the dry climate helps prevent dust and debris from accumulating on the panels, minimizing any potential efficiency losses.
Q: What is the role of bypass diodes in solar cell arrays?
The role of bypass diodes in solar cell arrays is to minimize the effect of shading or partial shading on the overall performance of the array. These diodes provide an alternate path for the current to bypass the shaded or low-performing cells, ensuring that the rest of the cells can continue operating efficiently. By preventing the shaded cells from dragging down the voltage and current of the entire array, bypass diodes help maximize the power output and overall efficiency of the solar cell array.
Q: What is the future of solar cells?
The future of solar cells looks promising, as advancements in technology continue to improve their efficiency, affordability, and versatility. With ongoing research and development, we can expect to see solar cells become even more efficient in converting sunlight into electricity, allowing for greater energy production. Additionally, innovations in materials and manufacturing techniques may lead to more cost-effective production methods, making solar cells more accessible to a wider range of consumers. Furthermore, integration of solar cells into various surfaces and structures, such as windows, clothing, and vehicles, will likely expand their applications and increase their adoption. Overall, the future of solar cells appears to be characterized by higher efficiency, lower costs, and increased integration, leading to a greater contribution to our global energy needs.

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