• Complete 24V 1000W stand alone solar systems System 1
Complete 24V 1000W stand alone solar systems

Complete 24V 1000W stand alone solar systems

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Loading Port:
Guangzhou
Payment Terms:
TT OR LC
Min Order Qty:
-
Supply Capability:
1000sets set/month

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Features

Solar cell modules
It converts solar energy into electrical energy and the frames support solar panels.
Charge controller
It supplies direct current regulated from solar modules to the battery or inverter.
Stand-Alone Inverter
It supplies alternative current to loads after rectifying the direct current.
Battery
It supplies the electric power to loads through inverter in case the electric power generated from solar modules is in short supply or at night.

 Complete 24V/1000W stand alone solar systems

5×200w poly solar panels//1×24V/50A solar charge controller//1×48V/3000W pure sine wave
inverter//4×12V/200Ah  lead acid batteries//ground mounting brackets//50m PV cables for solar
panels connection//dual connectors for solar panels connection//connection cables for batteries.

average produce 6kwh  power each day!!!

12V/200W Poly-crystalline Solar Panels
Model: 200P

Maximum power:200W

Maximum power voltage:35V

Maximum power current:5.71A

Open circuit voltage:42.48V

Short circuit current:6.29A

Dimension:1350mm×1000mm×45mm

Weight: 17.5kg

Solar cells:48pieces(6×8)poly solar cells156mm×156mm;Grade A; CE certification

Maximum systems voltage: 1000V

Wiring of solar panels: 1 panels in series, 5 strings in parallel
24V/50A solar charge controller
Model:KF2450
Rated voltage: 24V

Rated current: 50A

Over-voltage protection 34V

Over-discharge recover voltage: 25V

working temperature: -20~45

Dimension: 184mm×110mm×57mm

Weight: 0.66kg

Features: battery switch
Wiring of solar charge controller: firstly connect solar charge controller with battery bank, then
connect solar charge controller with solar panels array, at last connect solar charge controller
with loads or pure sine wave inverter

48V/3000W Pure Sine Wave Inverter
Model:XD-NB10224

Rated input voltage:DC24V

Input voltage range:75V~125V OR 145V~275V

Output voltage:AC210V~AC240V

Rated output power:1000W

Maximum output power:2000W

Output wave form: pure sine wave

Dimension:396mm×190mm×240mm

Weight:14kg.

Working temperature: 0~40.

Battery low voltage shutdown: DC21V

12V/200Ah deep cycle battery
Deep cycle batteries in our stand alone solar systems have 2000 time charging-discharging cycle
at 50% DOD. Gel batteries have better performance than lead acid batteries under cold
temperature. besides, these battery are free-maintenance.
Package&shipment terms
1,We would pack all components into one plywood case and put much foam inside of plywood case, this packing way can make all components stand long distance transportation.

2,Because batteries are a kind of very heavy components and can't be allowed to transport by air, we have to choose sea transportation. though sea transportation would take more days to arrive, however you can save much postage.

3.We would ship the system to any bigger port near to customers, customers need to go to the port and pick up the system.

Q:How do solar energy systems impact the grid?
Solar energy systems have a positive impact on the grid by reducing the overall demand for electricity from traditional sources. They generate clean and renewable energy, which can be fed back into the grid, reducing the reliance on fossil fuel-based power plants. This helps in reducing greenhouse gas emissions and promoting a more sustainable energy mix. However, the intermittent nature of solar power can create challenges for grid operators in managing fluctuations in supply and demand, requiring efficient grid management and energy storage solutions.
Q:How does the efficiency of solar panels vary across different climates?
The efficiency of solar panels can vary across different climates due to several factors. In regions with abundant sunlight and minimal cloud cover, such as deserts, solar panels tend to perform at their highest efficiency. The panels can convert a larger percentage of sunlight into electricity, resulting in higher energy output. However, in climates with frequent cloud cover, rain, or lower sunlight intensity, the efficiency of solar panels may decrease. These factors can reduce the amount of sunlight reaching the panels, thereby reducing their energy conversion rate. Additionally, extreme temperatures in certain climates can negatively impact the performance of solar panels. Overall, solar panel efficiency is influenced by the amount and intensity of sunlight available in a particular climate.
Q:Can solar energy systems be used in areas with limited access to emergency services?
Yes, solar energy systems can be used in areas with limited access to emergency services. Solar energy systems are independent and self-sufficient, requiring minimal maintenance and intervention. They can provide electricity for various purposes, including powering emergency communication devices, lighting, and medical equipment. Additionally, solar energy systems can reduce reliance on traditional energy sources, making them a reliable and sustainable option for areas with limited access to emergency services.
Q:Can solar energy systems be installed in areas with high winds?
Yes, solar energy systems can be installed in areas with high winds. In fact, it is important to consider wind speeds when installing solar panels to ensure their structural integrity and longevity. Solar panels are designed to withstand various weather conditions, including high winds. Proper installation techniques, such as utilizing strong mounting systems and securing panels with appropriate fasteners, can enhance their resistance to wind damage. Additionally, some solar panel manufacturers conduct rigorous testing to ensure their products can withstand high wind speeds. It is recommended to consult with a professional installer who can assess the specific conditions of the area and design a solar energy system that can effectively withstand high winds.
Q:What is the role of charge controllers in a solar energy system?
The role of charge controllers in a solar energy system is to regulate and control the flow of electricity between the solar panels and the batteries. They prevent overcharging of batteries by regulating the voltage and current, which helps prolong the battery's lifespan and ensures efficient and safe operation of the entire system.
Q:How does the temperature affect the performance of solar panels?
The temperature can significantly affect the performance of solar panels. In general, solar panels operate at their highest efficiency when the temperature is around 25 degrees Celsius (77 degrees Fahrenheit). However, as the temperature rises above this ideal range, the performance of the panels can decline. The primary reason for the decrease in performance is that solar panels are made up of photovoltaic (PV) cells that convert sunlight into electricity. These cells consist of semiconductors, typically made of silicon, which generate electricity when exposed to sunlight. When the temperature increases, the electrons in the PV cells gain more energy and move more rapidly, which can lead to increased resistance within the cells. This increase in resistance reduces the flow of electric current, resulting in a decrease in the overall power output of the solar panel. Moreover, the temperature increase can also cause a phenomenon called the "thermal effect." This effect results in a slight increase in the voltage output of the solar panels, but it is not proportional to the increase in temperature. As a result, the overall efficiency of the solar panels decreases. Additionally, higher temperatures can also lead to a decrease in the lifespan of the solar panels. The excessive heat can cause thermal stress on the materials used in the construction of the panels, leading to potential degradation and reduced durability over time. It is important to note that while high temperatures can negatively impact the performance of solar panels, they can still produce electricity even in hot climates. However, to mitigate the effects of temperature, solar panels are often designed with heat dissipation mechanisms, such as air gaps, ventilation, or cooling systems, to prevent excessive heat buildup and maintain optimal performance. Ultimately, the impact of temperature on solar panel performance varies depending on the specific design and materials used. It is crucial to consider temperature as a factor when installing solar panels and take necessary measures to maximize their efficiency and longevity.
Q:Can solar energy systems be used in powering hospitals or healthcare facilities?
Yes, solar energy systems can be used to power hospitals or healthcare facilities. Solar panels can generate electricity that can be used to run essential medical equipment, lighting, heating, and cooling systems, among other energy needs. This not only reduces reliance on grid electricity but also provides a sustainable and reliable source of power, particularly in remote or off-grid areas. Additionally, solar energy systems can help hospitals save on energy costs and contribute to a greener and more sustainable healthcare sector.
Q:Can solar energy systems be used for powering schools or educational institutions?
Yes, solar energy systems can be used to power schools or educational institutions. In fact, many schools and educational institutions around the world are adopting solar energy systems as a sustainable and clean source of power. Solar energy systems, such as solar panels, can be installed on the roofs of school buildings or in open spaces on the school campus to harness the power of the sun. This renewable energy source can generate electricity to meet a significant portion of the school's power needs. There are several benefits to using solar energy systems in schools. Firstly, solar power is a clean source of energy that does not produce harmful emissions or contribute to air pollution, thus helping to reduce the carbon footprint of the educational institution. Additionally, solar energy systems can help schools save money on their electricity bills in the long run, as they can generate electricity for free once the initial installation costs are recovered. These savings can be reinvested in educational resources or programs. Moreover, integrating solar energy systems into schools can provide valuable educational opportunities for students. By utilizing solar power, schools can educate their students about renewable energy, climate change, and the importance of sustainable practices. Students can learn about the science behind solar energy, the benefits of clean energy sources, and the role they can play in promoting a greener future. Furthermore, solar energy systems can also serve as a backup power source during power outages or emergencies, ensuring uninterrupted power supply to the school, especially during critical times such as exams or in areas with unreliable electricity infrastructure. In conclusion, solar energy systems can indeed be used to power schools or educational institutions. They offer numerous benefits, including reduced carbon emissions, cost savings, educational opportunities, and backup power capabilities. By embracing solar power, schools can demonstrate their commitment to sustainability, inspire students, and contribute to a cleaner and greener future.
Q:Are there any limitations to the amount of electricity a solar energy system can generate?
Yes, there are limitations to the amount of electricity a solar energy system can generate. The primary limitation is the availability of sunlight. Solar panels require direct sunlight to generate electricity, so factors such as weather conditions, geographical location, and time of day can affect the amount of sunlight received. Cloudy or rainy days can significantly reduce the electricity output of a solar energy system. Another limitation is the physical space available for installing solar panels. The size and number of panels that can be installed depend on the available roof or ground space. Limited space can restrict the overall capacity of the system and, consequently, the amount of electricity it can generate. Additionally, the efficiency of solar panels is a determining factor. The efficiency of converting sunlight into electricity varies depending on the type and quality of solar panels used. Higher efficiency panels can generate more electricity than lower efficiency ones. Furthermore, solar energy systems are also subject to degradation over time. Solar panels experience a gradual decrease in efficiency as they age due to factors like exposure to sunlight, temperature fluctuations, and environmental conditions. This degradation can reduce the overall electricity generation capacity of the system. Finally, energy storage is a limitation. Solar energy systems generate electricity during the day, but the demand for electricity often remains constant throughout the day and night. Without an efficient energy storage system, excess electricity generated during the day is wasted if not used immediately. Therefore, the inability to store excess electricity limits the overall amount that can be generated by a solar energy system. In summary, while solar energy systems offer a sustainable and renewable source of electricity, there are limitations to the amount they can generate due to factors such as sunlight availability, physical space, panel efficiency, system degradation, and energy storage capabilities.
Q:Can solar energy systems be installed on sports stadiums?
Yes, solar energy systems can be installed on sports stadiums. Many stadiums around the world have already installed solar panels to generate clean and renewable energy. These systems can help offset the energy demand of the stadium, reduce carbon emissions, and save costs in the long run.

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