• Solec Solar Energy Systems Portable Solar Power System 500W Modified Sine Wave with 34W Solar Panels System 1
  • Solec Solar Energy Systems Portable Solar Power System 500W Modified Sine Wave with 34W Solar Panels System 2
  • Solec Solar Energy Systems Portable Solar Power System 500W Modified Sine Wave with 34W Solar Panels System 3
Solec Solar Energy Systems Portable Solar Power System 500W Modified Sine Wave with 34W Solar Panels

Solec Solar Energy Systems Portable Solar Power System 500W Modified Sine Wave with 34W Solar Panels

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Loading Port:
Shekou
Payment Terms:
TT OR LC
Min Order Qty:
10 unit
Supply Capability:
5000 unit/month

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Functions
1.The solar power system  designed to provide DC power and  AC power  ,supply for  lighting, mobile phone charging, run the
   DC Fan and Radio, and TV ,computer  etc.
2.Built-in PWM charge controller, real time display of battery capacity and load status.
3.Built-in maintenance-free Lead-acid battery.
4.With several output socket, can output voltage DC12V and USB DC5V at the same time. 
5. Built-in DC to AC power inverter, can output AC220V/50HZ ,
6.Voice warning and together LED indicator shows the battery get low.


Technical parameters


 System voltage 12V
 Battery capacity 20AH/12V
 Max.charge current 10A
 Build-in solar panel Power 38W, open circuit voltage:17.5V
 Output voltage DC output : DC socket: 12V/5A
 USB output: DC5V/800mA
 Cigar lighter:   DC12V/10A
Output AC : AC220V/50HZ
 load power DC Power: <120W (total power), AC Power:<500W
 LVD (Low-voltage dis-cononect) DC load LVD: 11.0V,  AC load LVD: 10.0V
 DC load re-connect voltage 12.5V
 HVD (High-voltage dis-connect) 15.5V
 Weight15KG 
 Dimension 46*34*16 cm


Q: What maintenance is required for a solar energy system?
Regular maintenance is necessary to ensure that a solar energy system performs optimally and lasts a long time. This involves inspecting, cleaning, and monitoring various components of the system. Here are some important maintenance tasks for a solar energy system: 1. Conduct regular visual inspections: It is crucial to visually inspect the solar panels, mounts, and other components regularly. Look for any physical damage, such as cracks or loose connections, and address them promptly. 2. Keep the solar panels clean: Dust, dirt, leaves, and other debris can accumulate on the solar panels over time. It is important to clean the panels periodically, especially in areas with low rainfall or high pollution, to maintain their efficiency. Use a soft brush, non-abrasive cloth, or hose to remove debris. 3. Check for shading: Make sure there are no obstructions or objects casting shadows on the solar panels. Even partial shading can significantly impact the system's performance, so trim overhanging branches or remove any other sources of shading. 4. Monitor system performance: Regularly check the system's performance using the monitoring tools provided by the manufacturer or installer. These tools help identify any deviations from expected energy production and can indicate potential issues. 5. Inspect electrical connections: Check all electrical connections, including wiring, junction boxes, inverters, and batteries (if applicable). Look for loose connections, corrosion, or any signs of damage that might affect the system's performance or safety. 6. Maintain the inverter: Inverters convert the DC electricity generated by the solar panels into usable AC electricity. Depending on the type of inverter, periodic inspections, firmware updates, or replacement may be required. Follow the manufacturer's guidelines for proper inverter maintenance. 7. Take care of the batteries (if applicable): If your solar energy system includes battery storage, additional maintenance tasks may be necessary. This could involve checking the battery charge levels, electrolyte levels (for lead-acid batteries), and overall battery health. Follow the manufacturer's recommendations for battery maintenance. 8. Seek professional inspections: It is advisable to have a professional solar installer or technician inspect the system at least once a year. They can conduct a more thorough examination, perform any necessary repairs or replacements, and ensure that the system is operating optimally. By following these maintenance practices, you can maximize the efficiency and lifespan of your solar energy system, ensuring that it continues to generate clean and sustainable energy for years to come.
Q: Are there any risks of electromagnetic interference with solar energy systems?
Solar energy systems can be affected by electromagnetic interference (EMI), which refers to the disruption caused by electromagnetic radiation. This interference can impact the functioning of electronic devices. EMI can arise from various external sources and pose potential risks to solar energy systems. One common source of EMI is radio frequency interference (RFI) generated by nearby radio or television transmitters, radar systems, or wireless communication devices. These devices emit electromagnetic waves that can interfere with the operation of solar energy systems. This interference can lead to reduced power output, decreased efficiency, or even complete system failure. Another possible source of EMI is power line interference. Solar energy systems are typically connected to the electrical grid, and fluctuations or disturbances in the grid's electrical signals can introduce interference into the system. This can be caused by nearby power lines, electrical substations, or other electrical equipment. To mitigate the risks of EMI, solar energy systems are designed and installed with measures to minimize interference. These measures include using shielded cables, employing grounding techniques, and ensuring adequate spacing between components to reduce the impact of external electromagnetic fields. Additionally, solar inverters, which convert the DC power generated by solar panels into AC power, are often equipped with EMI filters to prevent interference from affecting the system's operation. It is crucial for solar energy system installers and manufacturers to adhere to relevant safety standards and regulations to ensure that the systems are resistant to EMI. Regular maintenance and inspections can also aid in identifying and addressing any potential EMI issues. In conclusion, although the risks of EMI exist for solar energy systems, proper design, installation, and maintenance practices can significantly minimize the impact and ensure the reliable and efficient operation of these systems.
Q: What is the expected return on investment for a solar energy system?
The expected return on investment for a solar energy system can vary depending on several factors such as the initial cost, location, available incentives, and energy usage. Generally, a solar energy system is expected to provide a positive return on investment over its lifetime. The initial cost of installing a solar energy system can be a significant investment, including the cost of solar panels, inverters, and installation. However, with the decreasing costs of solar technology in recent years, the upfront expense has become more affordable. The location of the solar energy system plays a crucial role in determining the expected return on investment. Areas with higher solar irradiance and longer sunshine hours tend to generate more electricity, resulting in a higher return. Additionally, the availability of net metering policies, which allow excess electricity to be fed back into the grid and credited to the owner, can further enhance the return on investment. Incentives and subsidies provided by governments and local authorities can significantly impact the expected return on investment. Many countries offer tax credits, grants, and rebates to encourage the adoption of solar energy systems. These incentives can reduce the initial cost and accelerate the payback period, enhancing the overall return on investment. Furthermore, the energy usage of the property is a critical factor in determining the expected return on investment. Higher electricity consumption means a greater opportunity for the solar energy system to offset utility bills, resulting in higher savings and an improved return on investment. While the specific return on investment can vary, studies have shown that solar energy systems typically pay for themselves within 5 to 10 years and continue generating free electricity for several decades. This extended period of energy production allows for significant savings on utility bills and a positive return on investment over the system's lifetime. Overall, investing in a solar energy system can provide long-term financial benefits through reduced electricity costs, potential revenue from excess electricity generation, and increased property value. It is crucial to perform a thorough evaluation considering the specific factors mentioned above to determine the expected return on investment for a solar energy system in a particular scenario.
Q: Can a solar energy system be installed on a hospital or healthcare facility?
A solar energy system has the capability to be installed on a hospital or healthcare facility. In reality, numerous hospitals and healthcare facilities across the globe have already integrated solar energy systems in order to diminish their carbon footprint and decrease energy expenses. Depending on the available area, solar panels can be positioned on the facility's rooftop or in a nearby open space. These systems are capable of generating electricity from sunlight that can be utilized to power various hospital operations, such as lighting, heating, cooling systems, and medical equipment. The utilization of solar energy not only assists in reducing energy costs for the facility but also fosters sustainability and environmental responsibility. Furthermore, solar energy systems can serve as a reliable and independent power source, which can be of utmost importance during emergencies or power interruptions, guaranteeing uninterrupted healthcare services.
Q: Can a solar energy system be installed on a museum or cultural institution?
Yes, a solar energy system can be installed on a museum or cultural institution. Solar panels can be mounted on the roof or in an open space surrounding the building to harness sunlight and convert it into electricity. This can help the institution reduce its reliance on conventional energy sources, lower its carbon footprint, and potentially save on electricity costs in the long run. Additionally, the installation of solar panels can also serve as an educational display, highlighting the institution's commitment to sustainability and renewable energy.
Q: Can solar energy systems be used in areas with limited roof access for maintenance?
Solar energy systems can indeed be utilized in areas where roof access for maintenance is limited. Although the usual practice is to install solar panels on rooftops for maximum exposure to sunlight, there are alternative choices to consider. One option is to install ground-mounted solar panels in areas where roof access is restricted, making maintenance and cleaning tasks simpler. Furthermore, solar panel systems can be integrated into other structures like carports or pergolas, offering an alternative approach to the conventional rooftop installations. These alternatives guarantee the effective utilization of solar energy systems in areas with limited roof access for maintenance.
Q: Can solar energy systems be used for powering off-grid eco-retirement communities?
Yes, solar energy systems can indeed be used for powering off-grid eco-retirement communities. Solar power provides a sustainable and renewable energy source that can efficiently meet the energy needs of such communities. With proper planning and installation of solar panels, off-grid eco-retirement communities can reduce their dependence on fossil fuels and minimize their environmental impact while enjoying reliable and independent power supply.
Q: What is the impact of roof material on the performance of solar panels?
The performance of solar panels can be significantly influenced by the type of roof material used, and this should not be disregarded. The efficiency and overall output of the solar panel system can be greatly affected by the selection of roof material. To begin with, the color and reflectivity of the roof material play a crucial role in the performance of solar panels. Dark-colored roofs tend to absorb more heat, leading to an increase in the temperature of the solar panels. This rise in temperature can diminish the efficiency of the panels and decrease their output. Conversely, light-colored or reflective roofs can help keep the panels cooler, enabling them to operate more effectively. Additionally, the texture and material of the roof can impact the installation and positioning of the solar panels. Certain roofing materials, such as slate or clay tiles, can be more delicate and require additional attention and expertise during the installation process. On the other hand, flat or smooth roofs made of materials like metal or asphalt facilitate the mounting of solar panels and allow for easy adjustment of their tilt and orientation to maximize solar exposure. Furthermore, the durability and lifespan of the roof material should also be taken into consideration. Solar panels typically have a lifespan of 25 to 30 years or more. Therefore, it is essential to select a roof material that can endure the weight and potential impact of the solar panel system throughout its lifetime. Moreover, roof materials that necessitate frequent maintenance or replacement may disrupt the solar panel system and result in additional expenses. Lastly, the roof material can impact the overall aesthetics and integration of the solar panel system into the building's design. Different roof materials may require specific mounting systems or modifications, which can affect the visual appeal of the solar installation. Consequently, it is important to choose a roof material that harmonizes with the appearance of the solar panels and enhances the overall look of the building. In conclusion, the impact of roof material on the performance of solar panels is significant. The choice of roof material can affect the temperature, installation, durability, and aesthetics of the solar panel system. It is crucial to carefully consider these factors to ensure optimal performance and longevity of the solar panels.
Q: Can solar energy systems be used for powering remote sensing devices?
Solar energy systems are definitely capable of powering remote sensing devices. They serve as an exceptional energy source for areas with limited or no access to traditional power grids. Remote sensing devices, like weather stations, surveillance cameras, tracking systems, or environmental monitoring instruments, necessitate a consistent and dependable power supply to function effectively. Solar energy systems, such as solar panels or photovoltaic (PV) cells, have the ability to directly convert sunlight into electricity. These systems can be set up in remote regions to harness solar energy and offer a sustainable and renewable power source for remote sensing devices. Solar panels are typically constructed using semiconductor materials that absorb sunlight and generate direct current (DC) electricity. This electricity can be used immediately to power the sensing devices or stored in batteries for later use during periods of low sunlight or at night. Utilizing solar energy systems to power remote sensing devices presents numerous advantages. Firstly, solar power is readily available and abundant in most parts of the world, making it highly suitable for remote locations where other power sources may not be feasible. Secondly, solar energy is clean and renewable, thus reducing reliance on fossil fuels and minimizing environmental impact. Additionally, solar power systems require minimal maintenance and possess a long lifespan, making them cost-effective and reliable for powering remote sensing devices. In conclusion, solar energy systems offer a practical and sustainable solution for powering remote sensing devices. They provide a reliable and renewable energy source, enabling remote sensing devices to operate efficiently in remote and off-grid locations.
Q: Can solar energy systems be used for indoor lighting?
Yes, solar energy systems can be used for indoor lighting. Solar panels can generate electricity from sunlight, which can be stored in batteries and used to power indoor lights. This provides a sustainable and renewable source of energy for indoor lighting, reducing reliance on traditional electricity grids.

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