Dankoff Solar Pump FCPM37KH Inverter System 1

Dankoff Solar Pump FCPM37KH Inverter

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Solar pump inverter FCPM37KH 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: How does a solar pump handle airlock or priming issues?: A solar pump typically handles airlock or priming issues by utilizing a self-priming mechanism. This mechanism allows the pump to automatically remove air and prime itself, ensuring a continuous flow of water without any interruptions.

Q: Can a solar pump be used for water circulation in hot tubs or spas?: Yes, a solar pump can be used for water circulation in hot tubs or spas. Solar pumps are designed to circulate water using energy from the sun, making them an eco-friendly and cost-effective option for water circulation. They can help maintain the desired water temperature in hot tubs and spas, ensuring a comfortable and enjoyable experience for users. Additionally, solar pumps are typically low maintenance and durable, making them a reliable choice for water circulation in these types of recreational settings.

Q: What is the maximum depth a solar pump can reach?: The maximum depth a solar pump can reach depends on various factors such as the power of the solar panels, the efficiency of the pump, and the specific application. However, in general, solar pumps can typically reach depths of up to 100 meters or more.

Q: What is the warranty period for a solar pump?: The warranty period for a solar pump typically varies depending on the manufacturer and model, but it is commonly between 1 to 5 years.

Q: How does the size of solar panels affect the performance of a solar pump?: The performance of a solar pump is significantly influenced by the size of the solar panels. Size refers to both the physical dimensions of the panels and the amount of power they can produce. The power output of the panels is closely linked to the performance of the pump when it comes to solar pumps. If the size of the solar panels is too small relative to the power needs of the pump, they may not generate enough electricity to sufficiently power the pump. This can result in reduced water flow or even complete failure of the pump. In such cases, the pump may only work sporadically or not at all during periods of low sunlight or high water demand. On the flip side, if the size of the solar panels matches the power requirements of the pump properly, the performance can be optimized. Larger panels can generate more electricity, leading to higher water flow rates and increased pumping capacity. This is especially crucial in situations where the pump needs to operate continuously or where there is a high demand for water, such as in agricultural irrigation systems or livestock watering. Aside from power generation, the size of the solar panels also impacts their efficiency and ability to capture sunlight. Larger panels generally have a larger surface area, enabling them to capture more sunlight and convert it into electricity. This can be advantageous in areas with lower sunlight intensity or during seasons with shorter daylight hours. Nevertheless, it is important to note that bigger is not always better. The size of the solar panels should be chosen carefully based on the specific requirements of the solar pump system. Oversizing the panels can result in unnecessary expenses and wasted space, while undersizing can lead to poor pump performance. It is crucial to consider factors such as the daily water demand, pump power requirements, sunlight availability, and system efficiency when determining the appropriate size of solar panels for optimal solar pump performance.

Q: Can solar pumps be used in both shallow and deep wells?: Yes, solar pumps can be used in both shallow and deep wells. The efficiency and effectiveness of the solar pump will depend on the specific requirements of the well, including its depth and the volume of water needed. However, solar pumps have the flexibility to be used in a wide range of well depths, making them a versatile and sustainable option for various water pumping needs.

Q: Are there any risks of over-pumping with a solar pump?: There are indeed risks associated with the use of a solar pump that extracts water at a rate faster than it can naturally replenish itself. One of the primary dangers is the depletion of the water source, particularly in regions with scarce water resources. This depletion can lead to a scarcity of water, decreased levels of groundwater, and even the complete drying up of wells or boreholes. Furthermore, over-pumping can have a significant impact on the local ecosystem and biodiversity. It can result in the drying up of important habitats such as wetlands, streams, or rivers, which serve as vital environments for various plant and animal species. This disruption can upset the natural balance and have adverse effects on local flora and fauna. Another risk involves the sinking or collapse of land, particularly in areas where groundwater levels are high. When water is excessively extracted, the ground can subside or give way, causing structural damage to buildings, infrastructure, and even the formation of sinkholes. Moreover, over-pumping can compromise the quality of water. As water levels decrease, the concentration of pollutants and contaminants in the remaining water can rise. This can render the water unsafe for consumption or irrigation. To address these risks, it is crucial to appropriately size and design solar pumping systems, taking into consideration the available water resources, local regulations, and the specific needs and limitations of the area. Additionally, implementing monitoring systems and establishing suitable controls can help prevent over-pumping and ensure the sustainable management of water.

Q: Can a solar pump be used for water supply in off-grid research stations?: Yes, a solar pump can be used for water supply in off-grid research stations. Solar pumps are powered by solar energy, making them a sustainable and efficient solution for remote locations without access to traditional grid electricity. They can effectively pump water from wells, rivers, or other water sources, providing a reliable water supply for research stations without the need for external power sources.

Q: How does a solar pump help in reducing the risk of water scarcity?: A solar pump helps in reducing the risk of water scarcity by harnessing solar energy to power the pump, eliminating the need for electricity or fuel. This makes it more accessible and affordable for communities in remote areas to access clean water for irrigation, drinking, and other needs. Additionally, solar pumps are environmentally friendly as they do not contribute to greenhouse gas emissions, thus promoting sustainability and reducing the strain on finite water resources.

Q: How do I calculate the required solar panel capacity for a solar pump system?: To calculate the required solar panel capacity for a solar pump system, you need to consider the power requirements of the pump, the average sunlight hours in your location, and any additional energy losses. Firstly, determine the power consumption of the pump in watts. Then, calculate the daily energy requirement by multiplying the pump's power consumption by the number of hours it operates daily. Next, divide this daily energy requirement by the average sunlight hours to obtain the minimum solar panel capacity needed to meet the pump's demand. Finally, account for any energy losses due to factors like inefficiencies or shading to ensure you have sufficient solar panel capacity to operate the pump efficiently.

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