Complete 24V 1000W solar panel systems
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Hot sale solar panel system for home use 1000W
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. |
More pictures about the solar panel system:
- Q:
- The efficiency of solar panels varies across different installation angles due to the changing angle of incidence of sunlight. Solar panels are most efficient when they are installed at an angle that allows them to receive direct sunlight perpendicular to their surface. When the installation angle deviates from this optimal position, the efficiency decreases as the angle of incidence increases or decreases. Hence, finding the right installation angle is crucial to maximize the efficiency of solar panels and ensure optimal energy generation.
- Q:
- The temperature greatly affects the efficiency of a solar energy system. As the temperature rises, the efficiency of solar panels decreases. This is because of how the semiconductor materials used in solar cells behave. When solar panels are exposed to sunlight, they absorb photons and convert them into electricity. However, as the temperature increases, the resistance of the semiconductor material also increases, which leads to a decrease in the flow of current. This phenomenon is called the temperature coefficient of power. The temperature coefficient of power is usually expressed as a percentage per degree Celsius and varies depending on the type of solar panel technology. Most solar panels have a negative temperature coefficient, meaning their efficiency decreases as the temperature rises. On average, solar panel efficiency can decrease by around 0.5% to 0.8% for every degree Celsius increase in temperature. Moreover, increased temperatures can cause thermal losses within the system. The heat can accumulate in the solar panels, further reducing their efficiency. This is particularly true in hot climates or when there is high solar irradiance. To address the impact of temperature on solar energy system efficiency, various strategies can be employed. One common approach is to incorporate cooling mechanisms, such as ventilation or water circulation, to dissipate the excess heat generated by the solar panels. This helps maintain lower operating temperatures and consequently improves overall efficiency. Furthermore, proper system design and installation techniques can also reduce temperature-related losses. For instance, mounting solar panels with sufficient spacing to allow for air circulation can prevent overheating. Additionally, choosing solar panels with lower temperature coefficients can help minimize efficiency losses in high-temperature environments. In conclusion, temperature significantly affects the efficiency of a solar energy system. Higher temperatures can cause a decrease in solar panel efficiency, mainly due to increased resistance in the semiconductor materials. To optimize the performance of solar energy systems, strategies like cooling mechanisms and proper system design should be implemented.
- Q:
- Yes, solar energy systems can be used for powering emergency backup systems. Solar panels can generate electricity even during power outages, providing a reliable and sustainable source of energy for critical backup systems such as lighting, communication devices, medical equipment, and more. By harnessing the sun's energy, solar power can contribute to the resilience and reliability of emergency backup systems.
- Q:
- A solar energy system can be effective with as little as 4-5 hours of direct sunlight per day, although more sunlight will generally result in higher energy production.
- Q:
- Yes, solar energy systems can be installed on roadways. There are several innovative technologies being developed and tested which aim to integrate solar panels into roads and highways. These systems, often referred to as solar roadways, have the potential to generate clean energy while also providing other benefits such as lighting, heating, and even charging electric vehicles. However, the concept is still in its early stages and faces challenges in terms of cost-effectiveness, durability, and efficiency.
- Q:
- Solar panels can be significantly affected by electromagnetic interference (EMI). EMI refers to the disturbance caused by electromagnetic radiation from various sources like power lines, electronic devices, or radio waves. This interference can disrupt the normal functioning of solar panels and decrease their efficiency. The primary effect of EMI on solar panels is the degradation of the photovoltaic cells' ability to convert sunlight into electricity. When exposed to electromagnetic radiation, the cells can become less efficient in converting sunlight, resulting in less power generated. This directly impacts the overall output of a solar panel system and its ability to effectively meet energy demands. Furthermore, EMI can introduce electrical noise into the system, interfering with the required voltage and current levels needed for proper operation. This noise disrupts the control circuits and electronics within the solar panel system, leading to inaccurate measurements and potential malfunctions. In severe cases, excessive EMI can even damage the electronic components of the solar panel, further reducing its lifespan and performance. To minimize the impact of EMI on solar panels, several measures can be taken. Shielding techniques, such as using metallic enclosures or conductive coatings, can reduce the external electromagnetic radiation reaching the solar panels. Additionally, proper grounding and isolation of sensitive electronic components can minimize the interference caused by internal electrical noise. In conclusion, electromagnetic interference can significantly affect the performance of solar panels. It reduces conversion efficiency, introduces electrical noise, and can potentially damage electronic components. By implementing appropriate shielding and grounding measures, the negative effects of EMI can be mitigated, ensuring optimal performance and longevity of solar panel systems.
- Q:
- Yes, solar energy systems can be used in areas with limited water resources. Solar energy systems primarily rely on the sun's radiation to produce electricity or heat, and do not require significant amounts of water for operation. Unlike conventional power plants that rely on water for cooling and steam generation, solar energy systems can operate without the need for water-intensive processes. Solar photovoltaic (PV) systems, which convert sunlight directly into electricity, do not require water for operation. These systems consist of solar panels that capture sunlight and convert it into electricity through the photovoltaic effect. As a result, they can be installed in areas with limited water resources without any impact on their functionality. Solar thermal systems, on the other hand, use sunlight to heat a fluid, such as water or oil, which is then used to generate electricity or provide heating. While these systems may require some water for cleaning or maintenance purposes, the water requirements are relatively minimal compared to traditional power plants. Additionally, advancements in solar thermal technology have led to the development of dry-cooling systems, which significantly reduce water consumption. Moreover, solar energy systems can be combined with other technologies to further minimize water usage. For instance, solar-powered desalination plants can be used to convert seawater or brackish water into freshwater through a process called reverse osmosis, without relying on traditional energy sources or fossil fuels. This integration of solar energy and desalination can provide clean drinking water in areas with limited freshwater resources, while reducing the strain on water supplies. In conclusion, solar energy systems are well-suited for areas with limited water resources as they operate primarily on sunlight and do not require significant amounts of water for their functioning. The use of solar power can not only reduce greenhouse gas emissions and dependence on fossil fuels but also alleviate the water scarcity issues faced by these regions.
- Q:
- Yes, solar energy systems can be used in areas with high pollution levels. Solar panels generate electricity by converting sunlight into energy, and their performance does not depend on air quality. While pollution may reduce the amount of sunlight reaching the panels, they can still function and produce electricity. However, it's worth noting that regular cleaning of the panels may be necessary to maintain optimal efficiency in areas with high pollution levels.
- Q:
- Yes, solar energy systems can definitely be used in powering amusement parks. Solar power has become increasingly popular in recent years due to its numerous benefits. Amusement parks require a significant amount of energy to operate rides, lighting, and other facilities. By utilizing solar energy systems, parks can reduce their reliance on traditional energy sources and significantly lower their operational costs. Solar panels can be installed on rooftops, parking lots, or open areas within the amusement park to harness the power of the sun. These panels convert sunlight into electricity, which can be used directly to power various park operations. Additionally, excess energy generated during peak sunlight hours can be stored in batteries for use during cloudy or nighttime periods. The advantages of using solar energy in amusement parks are manifold. Firstly, it is a renewable and sustainable energy source, meaning it does not deplete natural resources or produce harmful emissions. This makes solar energy an environmentally friendly choice, aligning with the growing emphasis on green initiatives and reducing carbon footprints. Furthermore, solar energy systems can provide a stable and predictable source of power. Amusement parks often experience high peak energy demands during busy periods, such as weekends or holidays. Solar panels can easily handle these fluctuations and ensure a reliable power supply, reducing the risk of power outages or disruptions. Moreover, installing solar panels can enhance the overall image and brand of an amusement park. By demonstrating a commitment to sustainable practices, parks can attract environmentally conscious visitors and differentiate themselves from competitors. This can contribute to a positive public image and potentially increase visitor numbers. In conclusion, solar energy systems can undoubtedly be used to power amusement parks. Their ability to generate clean, reliable, and cost-effective electricity makes them an ideal solution for powering the energy-intensive operations of amusement parks. By harnessing the power of the sun, parks can reduce their carbon footprint, lower operational costs, and enhance their overall appeal to visitors.
- Q:
- The main components of a solar energy system include solar panels, an inverter, a battery (optional), and a charge controller.
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