• Solar pump inverter FCPM1500L System 1
  • Solar pump inverter FCPM1500L System 2
  • Solar pump inverter FCPM1500L System 3
Solar pump inverter FCPM1500L

Solar pump inverter FCPM1500L

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Solar pump inverter FCPM1500L Product Description:
Solar water pumping system is constructed with solar panel array,solar pump inverter and AC water pump, DC current produced from solar panel will be delivered to solar pump inverter,and it will convert it into AC current to drive water pump,and will automatically regulate output frequency according to sun radiance intensity,maximally realize MPPT tracking function.
Features
Adopting the proposed dynamic VI maximum power point tracking (MPPT) control method, with fast response, and reliable operation, achieves efficiency of 99%.
Designed with variable frequency driver, greatly improves efficiency
Extremely high efficiency
Digital mode control, with automatic operation and manual operation mode options
Complete protection functions
Adopts intelligent IPM module, with high reliability
LCD display and operation panel, in real time presents operating data
Optional for water level measurement and control circuit
Applicable for general ACC pumps, like centrifugal pump, piston pump etc.
Independent intellectual property; Highly effective, the redundant reliability, exempts the maintenance and the long life.
The pumps are soft started, fully protected.
No batteries are used. So better Sunlight, more water.
Datasheet.


Q: Are there any limitations to using a solar pump?
Yes, there are certain limitations to using a solar pump. One major limitation is that solar pumps are dependent on sunlight for their operation. This means that they may not be as effective or efficient during cloudy or rainy days, or in areas with limited sunlight. The amount of power generated by the solar panels directly affects the pump's performance, so if there is not enough sunlight, the pump may not be able to function optimally. Another limitation is the initial cost of installing a solar pump system. While solar pumps can save money in the long run by reducing electricity bills, the upfront costs can be significant. The cost includes not only the pump but also the solar panels, batteries, and other necessary components. This may make it less accessible for individuals or communities with limited financial resources. Additionally, solar pumps require adequate space for the installation of solar panels. The panels need to be positioned in a way that maximizes exposure to sunlight, which may require a large open area or a rooftop with unobstructed access to sunlight. In some urban or densely populated areas, finding suitable space for solar panels can be a challenge. Maintenance and repair can also be a limitation. Solar pumps require regular maintenance to ensure their efficient operation. This includes cleaning the solar panels, checking connections, and inspecting other components. If a part malfunctions or breaks, it may be more challenging to find specialized technicians or spare parts compared to conventional pumps. Lastly, the capacity of solar pumps can be limited. They may not be suitable for high-demand applications that require significant water flow or pressure. Larger-scale agricultural or industrial operations may require more powerful pumps that solar energy alone may not be able to provide. Despite these limitations, solar pumps offer numerous advantages such as energy efficiency, environmental friendliness, and long-term cost savings. It is important to carefully assess the specific requirements and limitations of your situation before deciding to use a solar pump.
Q: How does the efficiency of a solar pump vary with different water depths?
Different water depths can affect the efficiency of a solar pump. In general, as the water depth decreases, the efficiency of the pump tends to increase. This is because lifting water from shallower depths requires less energy compared to deeper depths. When the water depth is shallow, the solar pump faces less head pressure, enabling it to operate more efficiently. On the other hand, as the depth increases, the pump must exert more force to lift the water, leading to a decrease in efficiency. However, it is important to acknowledge that the efficiency of a solar pump is also influenced by other factors, such as the pump's type and size, the quality of the solar panels, and the system's design. Therefore, it is crucial to consider these factors along with water depth in order to determine the overall efficiency of a solar pump.
Q: Can a solar pump be used in areas with high levels of pesticides in the water?
Yes, a solar pump can be used in areas with high levels of pesticides in the water. Solar pumps are designed to draw water from various sources, including wells, rivers, and ponds. While it is important to consider the quality of water being pumped, solar pumps can effectively extract water from contaminated sources. However, it is recommended to use additional water treatment methods to ensure the safety and purity of the water for consumption or other uses.
Q: How much sunlight is required for a solar pump to operate effectively?
Several factors, such as the type and capacity of the pump, the location, and the specific requirements of the application, determine the amount of sunlight necessary for a solar pump to function effectively. Generally, solar pumps are designed to operate optimally in areas with abundant sunlight. They rely on direct sunlight to produce electricity through PV panels, which powers the pump. While most solar pumps can operate with varying levels of sunlight, their efficiency and performance may be significantly reduced in low light conditions or on cloudy days. The exact amount of sunlight required can vary, but as a general guideline, a solar pump typically needs a minimum of 4 to 5 hours of direct sunlight per day to function effectively. It is worth noting that some solar pumps are equipped with battery storage systems, enabling them to operate even when sunlight is unavailable. These pumps can store excess energy generated during the day and utilize it later when sunlight is limited. This feature ensures continuous operation during low light conditions or at night. To determine the specific sunlight requirements for a solar pump, it is advisable to consult the manufacturer's specifications or seek professional advice from a solar pump installer or supplier. They can provide more precise information based on the specific pump model and application requirements.
Q: How does a solar pump help in reducing the risk of waterborne illnesses?
A solar pump helps in reducing the risk of waterborne illnesses by providing a reliable and clean source of water for communities. It eliminates the need to rely on contaminated water sources such as rivers or ponds, which are often breeding grounds for disease-causing bacteria and parasites. By accessing safe water through a solar-powered pump, communities can reduce their exposure to waterborne diseases, such as diarrhea, cholera, and typhoid, leading to improved health and well-being.
Q: Can solar pumps be used for water supply in industrial applications?
Yes, solar pumps can be used for water supply in industrial applications. Solar pumps are capable of providing reliable and sustainable water supply for industrial purposes, such as irrigation, agriculture, livestock, and manufacturing. They offer cost-effective and environmentally friendly solutions by utilizing solar energy to power the pumps without the need for grid electricity or fuel. Additionally, solar pumps can be easily installed and maintained, making them suitable for various industrial settings.
Q: How does the performance of a solar pump vary with different solar panel efficiencies?
The performance of a solar pump is directly affected by the efficiency of the solar panels used. Higher efficiency solar panels convert more sunlight into electricity, resulting in increased power output for the pump. This means that with higher efficiency panels, the solar pump will be able to generate more water flow, operate at a higher pressure, and potentially work during low light conditions as well. On the other hand, lower efficiency panels would produce less power, resulting in reduced pump performance. Therefore, the performance of a solar pump varies significantly with different solar panel efficiencies.
Q: How to use solar panels to drive 50W of circulating water pump, what configuration needs, how to connect?
Of the 24V motor 50W, it takes about 2A current.Therefore, the output current of the battery plate to be larger .... even if it is cloudy, but also make the motor have enough current to stabilize the work.
Q: Can a solar pump be used in conjunction with a battery storage system?
Yes, a solar pump can be used in conjunction with a battery storage system. The solar panels can be used to power the pump during the day, and any excess energy generated can be stored in batteries for use during the night or when sunlight is not available. This combination ensures a continuous water supply even when solar energy is not being generated.
Q: Are there any limitations to the type of terrain a solar pump can be installed on?
The installation of a solar pump comes with certain limitations regarding the terrain it can be placed on. One primary constraint is the availability of direct sunlight. Since solar pumps rely on solar panels to generate electricity, they need an adequate amount of sunlight to operate at their best. If the installation site is heavily shaded or obstructed by tall buildings, trees, or other structures, it may not receive enough sunlight to effectively power the solar pump. Another limitation involves the stability and levelness of the terrain. Solar pumps are usually installed on the ground or mounted on a structure like a pole or a roof. It is crucial to ensure that the installation site is stable and capable of supporting the weight of the pump and its components. If the terrain is uneven or prone to shifting, it may not be suitable for a solar pump installation. Moreover, the accessibility of the installation site can also pose limitations. In challenging terrains such as remote or mountainous areas, transporting the necessary equipment and materials for installing the solar pump can be difficult. Additional logistical considerations and costs may come into play in such cases. Furthermore, the type of soil or ground conditions can also impact the installation of a solar pump. For example, rocky or hard soil may require specialized drilling or anchoring techniques, leading to increased installation complexity and cost. Similarly, areas prone to flooding or high water tables may necessitate additional measures to safeguard the solar pump system from water damage. In conclusion, while solar pumps offer a versatile and sustainable solution for water pumping, careful attention to the terrain is crucial to ensure optimal performance and long-term functionality.

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