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Sirius Solar Energy Systems 105w Small Solar Panels in Stock China Manufacturer

Sirius Solar Energy Systems 105w Small Solar Panels in Stock China Manufacturer

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Loading Port:
China main port
Payment Terms:
TT OR LC
Min Order Qty:
1 watt
Supply Capability:
10000000 watt/month

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Specification

Application:
Home
Output Voltage (V):
24

Product Description:

Hot Sale !!! Quality and Safety of Small Poly Solar Panel 5w~150w

1. Rigorous quality control meets the highest international standards.

2. High-transmissivity low-iron tempered glass, strong aluminium frame.

3. Using UV-resistant silicon.

4. IS09001/14001/CE/TUV/UL  

 

 

Warranties of Small Poly Solar Panel 35~85w

1. 10 years limited product warranty

2. 15 years at 90% of the minimal rated power output

3. 25 years at 80% of the minimal rated power output

 

Specification

Characteristics of Poly solar panels CNBM (245-320W)

Max Power Voltage Vmp(V) 

30.3

30.8

31.1

31.4

31.85

Max Power Current Imp(A)

7.60

7.64

7.73

7.81

7.85

Open Circuit Voltage Voc(V)

36.1

36.6

37

37.3

37.68

Short Circuit Current Isc(A)

8.50

8.55

8.65

8.75

8.85

Max Power Pm(W)

230W

235W

240W

245W

250W

 

Temperature Coefficient of Cells Poly solar panels CNBM (245-320W)

NOCT 

45± 2

Temperature Coeffucients of Isc 

 0.0492

Temperature Coeffucients of Voc 

-0.3374

Temperature Coeffucients of Voc 

-0.4677

 

Mechanical Data of Poly solar panels CNBM (245-320W)

Dimension 

1638 ×  982 × 40 mm

Weight

19.5 kg

No. of Cells and Connections

60 (6 ×10)

Tolerance

0 ~ + 5 W

Cell

Monocrystalline Cell 156 × 156 mm

Packing

624 Pcs/40ft(H) Container

 

Limits of Poly solar panels CNBM (245-320W)

Operating Temperature

-40 to +85

Storage Temperature

-40 to +85

Max System Voltage 

1000VDC(IEC) / 600VDC(UL)

 

Features of our products:
• High conversion efficiency mono/poly-crystalline amorphous silicon solar cells
• Modules incorporate high performance bypass diodes to minimize the power drop caused by shading
• High transmittance, low-iron tempered glass
• High performance EVA encapsulant to prevent destroying and water.
• AI frame: without screw, corner connection. 8 holes on the frame can be installed easily
• Good performance of preventing from atrocious weather such as wind and hails
• Certifications: CE IEC TUV VDE UL, Class I
• 10 years 90% power output warranty

 

105w Small Solar Panels in Stock China Manufacturer

Shipping of Small Poly Solar Panel 35~85w

By Sea

Delivery from Shanghai or Ningbo seaport

By Air

Departure from Shanghai Pudong Airport

By Express

Post by DHL, EMS, UPS, TNT.

 

Features of our products:
• High conversion efficiency mono/poly-crystalline amorphous silicon solar cells
• Modules incorporate high performance bypass diodes to minimize the power drop caused by shading
• High transmittance, low-iron tempered glass
• High performance EVA encapsulant to prevent destroying and water.
• AI frame: without screw, corner connection. 8 holes on the frame can be installed easily
• Good performance of preventing from atrocious weather such as wind and hails
• Certifications: CE IEC TUV VDE UL, Class I
• 10 years 90% power output warranty

As a professional Solar Panel manufacturer and Supplier in China, we have our customers come around the whole world and our specialization has got a worldwide recognition. Meanwhile, with our superior quality, competitive price, prompt and excellent service, As main role in trade section of CNBM Group, CNBM International Corporation supplies products including Monocrystalline Solar Panel, Polycrystalline Solar Panel ( multicrystalline silicon Solar Panel) have received and enjoyed famous reputation in many countries and regions in the world.

Q: Can solar energy systems be used in areas with strict building codes or historical preservation restrictions?
Indeed, it is possible to utilize solar energy systems in areas that have stringent building codes or restrictions on historical preservation. Although it may necessitate additional considerations and careful planning, integrating solar energy systems into the existing structures is certainly achievable. One approach to incorporating solar energy systems involves employing building-integrated photovoltaics (BIPV) or solar thermal systems that flawlessly blend into the building's design. These systems can be installed on rooftops, facades, or even utilized as shading elements, ensuring that the building's historical aesthetics or architectural integrity remain intact. Additionally, advancements in solar technology have facilitated the creation of more visually appealing solar panels, such as solar tiles or transparent solar windows, which harmonize with the building's existing materials. This simplifies the process of obtaining approval from historical preservation boards or building code authorities. It is crucial to note that in areas with strict building codes or historical preservation restrictions, the approval process for installing solar energy systems may be more complex. It may entail acquiring permits, conducting structural assessments, and closely collaborating with local authorities to ensure compliance with regulations. Nevertheless, due to the increasing recognition of the significance of renewable energy, many jurisdictions have established specific guidelines and provisions for integrating solar systems in historic areas. To summarize, it is feasible to utilize solar energy systems in areas with strict building codes or historical preservation restrictions by employing BIPV, solar thermal systems, or visually appealing solar panels. Although the approval process may require more effort, with proper planning and adherence to guidelines, it is possible to harness solar energy without compromising the architectural or historical significance of the area.
Q: Can solar energy systems be used in powering music studios or recording studios?
Yes, solar energy systems can definitely be used to power music studios or recording studios. Solar power systems are a clean and renewable energy source that can provide a reliable and cost-effective solution for powering various electrical equipment, including the high energy-consuming equipment found in music studios. Solar panels can be installed on the roof or any other suitable area of the studio building to harness sunlight and convert it into electricity. This electricity can then be used to power a wide range of equipment such as amplifiers, mixers, microphones, computers, lighting, and air conditioning systems. The size of the solar power system required will depend on the energy needs of the studio. By analyzing the energy consumption patterns and demands of the studio, solar energy experts can design and install a customized solar power system to meet the specific requirements of the studio. One of the advantages of using solar energy in music studios is the potential for significant cost savings. Traditional electricity sources, especially in commercial settings, can be quite expensive. By generating their own electricity through solar power, studios can reduce their reliance on the grid and potentially lower their electricity bills. Additionally, solar energy is a sustainable and environmentally friendly option. Music studios often consume a large amount of electricity, and using solar power can help reduce their carbon footprint and contribute to a greener future. It is worth noting that solar energy systems can also be combined with battery storage systems. This allows music studios to store excess energy produced during the day and use it during times of low solar generation or at night. This further enhances the reliability and independence of the solar power system. In conclusion, solar energy systems can be effectively used to power music studios or recording studios. They offer a clean, renewable, and cost-effective solution that can meet the energy demands of these facilities while reducing their environmental impact.
Q: Can solar energy systems be used in areas with limited access to backup systems?
Yes, solar energy systems can be used in areas with limited access to backup systems. Solar energy systems, such as solar panels, can generate electricity during the day by harnessing the sun's energy. This electricity can be used directly to power devices or stored in batteries for later use, providing a reliable source of energy even in areas with limited access to backup systems or unreliable grid infrastructure. Additionally, advancements in solar technology have made off-grid solar systems more efficient and affordable, making them a viable option for powering remote areas or locations with limited or no access to traditional backup systems.
Q: What are the different financing models for installing solar energy systems?
There are several financing models available for installing solar energy systems. These include purchasing the system outright with cash, utilizing solar loans or leases, entering into a power purchase agreement (PPA), or participating in community solar programs. Each model has its own advantages and considerations, allowing individuals and businesses to choose the option that best suits their financial situation and goals.
Q: Can solar energy systems be used for powering industrial manufacturing plants?
Industrial manufacturing plants can indeed utilize solar energy systems for power. In fact, many such plants worldwide are already using these systems to reduce their reliance on fossil fuels and minimize their impact on the environment. Solar energy systems comprise photovoltaic (PV) panels that convert sunlight into electricity. These panels can be installed on the roofs or open spaces of manufacturing plants to harness ample solar energy. The electricity generated by the solar panels can be used to power various processes and equipment within the industrial plant, including machinery, lighting, heating, ventilation, and air conditioning systems. Using solar energy to power industrial manufacturing plants offers several advantages. Firstly, solar power is a renewable and clean energy source, helping to decrease greenhouse gas emissions and reduce dependence on fossil fuels. This aligns with the increasing need for sustainable practices and carbon footprint reduction in industries. Secondly, solar energy systems can significantly lower electricity costs for manufacturing plants. Once the initial investment for installing the solar panels is made, operational costs remain relatively low. Furthermore, some countries provide incentives and subsidies for implementing solar energy systems, further alleviating the financial burden. In addition, solar energy systems can provide a stable and reliable source of electricity. With advancements in battery storage technology, excess solar energy can be stored and used during periods without sunlight or when demand is high. This ensures an uninterrupted power supply and reduces reliance on the power grid. However, it is important to consider various factors before determining the feasibility of using solar energy systems for powering industrial manufacturing plants. These factors include sunlight availability, plant size, energy requirements, and the initial investment cost. Additionally, certain manufacturing processes may require a consistent and higher level of electricity that solar energy alone may not fully meet. Overall, solar energy systems have demonstrated their viability and sustainability for powering industrial manufacturing plants. Their use can contribute to carbon emission reduction, lower electricity costs, and foster a greener and more environmentally friendly industrial sector.
Q: Are there any limitations to the lifespan of solar energy systems?
Yes, there are limitations to the lifespan of solar energy systems. The most significant limitation is the degradation of the solar panels over time. Solar panels are made up of photovoltaic (PV) cells that convert sunlight into electricity. These cells degrade gradually, losing efficiency as they age. On average, solar panels experience a degradation rate of around 0.5-1% per year, which means that after 25-30 years, the panels might only produce around 75-80% of their original power output. Another limitation is the lifespan of other components in the solar energy system, such as inverters, batteries (if present), and wiring. Inverters, which convert the DC electricity generated by the solar panels into AC electricity for use in homes or businesses, typically have a lifespan of 10-15 years. Batteries, if used for energy storage, also have a limited lifespan, usually around 5-10 years. Wiring can deteriorate over time due to exposure to the elements, requiring maintenance or replacement. Furthermore, environmental factors can impact the lifespan of solar energy systems. Extreme weather conditions like hailstorms, hurricanes, or heavy snow can damage solar panels, reducing their efficiency or even rendering them inoperable. Additionally, excessive heat can accelerate the degradation of solar panels, shortening their lifespan. However, it is important to note that while solar energy systems have limitations, proper maintenance and regular inspections can help maximize their lifespan and performance. Many solar panels come with warranties that guarantee their performance for a certain number of years, often ranging from 20 to 25 years. Moreover, technological advancements and improvements in manufacturing processes are constantly being made, which may lead to longer-lasting and more efficient solar energy systems in the future.
Q: Can solar energy systems be used in areas with high levels of dust or sandstorms?
Solar energy systems can indeed be utilized in regions with significant amounts of dust or sandstorms. Although these natural occurrences can momentarily decrease the efficiency of solar panels by obstructing sunlight, there are various steps that can be taken to mitigate their impact. Firstly, it is crucial to regularly clean and maintain solar panels to eliminate accumulated dust and debris, ensuring the maximum absorption of sunlight. This can be achieved through manual cleaning or by utilizing automated cleaning systems that employ water or brushes to keep the panels pristine. Secondly, there are advanced panel designs and coatings available that minimize the adherence of dust particles and facilitate effortless cleaning. These technologies enable panels to self-clean or reduce the accumulation of dust, guaranteeing optimal performance even in dusty environments. Additionally, proper installation and positioning of solar panels play a significant role in minimizing the impact of dust or sandstorms. By tilting the panels at an appropriate angle and maintaining sufficient ground clearance, the accumulation of dust can be minimized. Furthermore, employing protective measures such as fences, windbreakers, or enclosures around the solar energy systems can shield the panels from strong winds and blowing sand during sandstorms. These measures effectively prevent physical damage to the panels and maintain their functionality. In conclusion, although dust or sandstorms may present temporary obstacles to solar energy systems, with proper maintenance, cleaning, panel design, positioning, and protective measures, solar energy can still be effectively harnessed in areas with high levels of dust or sandstorms.
Q: Can solar energy systems be used in areas with limited access to sunlight due to tall nearby buildings or trees?
Solar energy systems require direct sunlight to generate electricity. Therefore, areas with limited access to sunlight due to tall nearby buildings or trees may not be ideal for installing solar energy systems. The shading caused by these structures can significantly reduce the efficiency and effectiveness of solar panels. However, there are alternative solutions such as adjusting the panel placement, using tracking systems, or exploring other renewable energy options that can overcome some of these limitations.
Q: What is the role of microinverters in a solar energy system?
Microinverters play a crucial role in a solar energy system by converting the direct current (DC) electricity produced by individual solar panels into usable alternating current (AC) electricity that can be used to power homes or businesses. Unlike traditional string inverters which are connected to multiple panels in series, microinverters are installed on each individual solar panel. By having a microinverter on each panel, the system can optimize the energy production of each panel independently. This means that if one panel is shaded or experiences a decrease in efficiency, it will not affect the performance of the entire solar array. Microinverters also allow for better monitoring and control of the system, as each panel's performance can be tracked individually. Additionally, microinverters enhance the safety of the solar energy system. Since they convert DC to AC electricity at the panel level, there is no high voltage DC electricity running through the system, reducing the risk of electrical shock during maintenance or repairs. This also allows for easier expansion or modification of the solar system as each panel can be added or removed without affecting the entire system. Furthermore, microinverters improve the overall energy efficiency of the solar energy system. By converting DC electricity to AC at the panel level, there is less energy loss due to long wire runs or voltage drops. This results in a higher overall energy output and a more efficient use of the solar panels' power generation capabilities. In conclusion, the role of microinverters in a solar energy system is to convert the DC electricity produced by individual solar panels into usable AC electricity, optimize energy production, enhance system safety, improve energy efficiency, and provide better monitoring and control capabilities.
Q: Can solar energy systems be used in areas with frequent hurricanes?
Yes, solar energy systems can be used in areas with frequent hurricanes. While it is true that hurricanes can cause damage to solar panels and other components of solar energy systems, there are measures that can be taken to mitigate these risks. Firstly, the design and installation of solar energy systems in hurricane-prone areas can be done to withstand high winds. This includes using stronger mounting systems, reinforced frames, and secure anchoring techniques. Additionally, the orientation and tilt angle of the panels can be optimized to minimize wind resistance. Furthermore, regular maintenance and inspections can help identify any potential issues or damage to the system before a hurricane hits. This allows for timely repairs or replacements, ensuring the system remains functional and safe during extreme weather events. In the event of a hurricane, it is important to have emergency procedures in place to secure the solar panels and other components. This can involve temporarily removing the panels and securing them indoors or utilizing protective covers to shield them from debris. Moreover, the use of microinverters or power optimizers in solar energy systems can enhance their resilience in hurricane-prone areas. These technologies allow each solar panel to operate independently, mitigating the impact of any damage to a single panel and preventing the entire system from shutting down. Lastly, solar energy systems can also contribute to the resilience of communities during and after hurricanes. With proper battery storage, solar systems can provide backup power during power outages, allowing essential services to continue operating and providing electricity for critical needs such as lighting, refrigeration, and medical equipment. Overall, while precautions need to be taken to ensure the durability and functionality of solar energy systems in hurricane-prone areas, they can be effectively used to harness clean and renewable energy even in the face of frequent hurricanes.

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