Wbs Solar Pump AC Solar Agricultural Irrigation Systems
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- Loading Port:
- Shekou
- Payment Terms:
- TT OR LC
- Min Order Qty:
- 20 set
- Supply Capability:
- 800000 set/month
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Solar Pumping System can be applied to daily use (ground water), agricultural irrigation, forestry irrigation, desert control, pasture animal husbandry, water supply for islands, wastewater treatment engineering, and so on. Solar water pump System is dispensed with energy storing devices, and stores water instead of electricity. It improves the reliability of the device, at the same time, it lowers the construction and maintenance costs of the irrigation system dramatically.
In recent years, with the promotion of the utilization of new energy resources, Solar Pumping System is more and more used in municipal engineering, city centre squares, parks, tourist sites, resorts and hotels, the landscapes and fountain irrigation systems in the residential areas.
Technical Features
Optimization of Single Pump System
A single solar irrigation system consists of only one pump, a power -matched solar array and an inverter . The aim of optimization is to reduce the amount of PV modules as much as possible on the premise of filling the requirement of head and capacity. The rotational speed of pump is regulated according to the irradiation on the solar array; when the sunlight reaches its peak, the pump runs at the rated speed, and the output approaches the peak power of the solar array; when the sunlight is less abundant, the speed of pump varies bellow the range of the rated speed; when the speed as low as the capacity becomes zero, the solar pumping system stops working. So, there are big differences between solar irriation systems and traditional pumping systems in system design, and the system should be optimized according to the requirements of head, capacity, and local conditions of sunlight.
•Determine the optimal average daily operating time and the range of speed governing.
•Choose the optimal head and capacity of the pump.
•Determine the maximum power of PV modules, the best working voltage and method of connection.
Optimization of Multi-pump Systems：
There are several pumps in a multi-pump system. The pumps can be driven either by only one high-power inverter, or by several matching inverters. In the case of large capacity demand, the operation of the multi-pump system is more flexible. By switching solar arrays and pumps, all of the pumps run in MPPT mode when the sunlight is abundant, while some pumps will be shut down and all solar arrays supply power intensively for the rest running pumps when irradiation is weak. Based on the optimization of single pump system, the range of speed can be further optimized, and the photovoltaic(PV) pumping system always works with high efficiency.
Product Specifications
Model | Rated Power ( kW ) | Rated Voltage ( V ) | Head ( M ) | Daily Flow ( ㎥/ D ) |
PS550 | 0.55 | 220 | 15-70 | 40-1 |
PS750 | 0.75 | 220 | 6-81 | 100-1 |
PS1100 | 1.1 | 220 | 8-93 | 100-1 |
PS1500 | 1.5 | 220 | 7-128 | 130-1 |
PS9200 | 9.2 | 380 | 20-140 | 500-40 |
PS11000 | 11 | 380 | 23-159 | 500-40 |
PS13000 | 13 | 380 | 27-189 | 500-40 |
PS15000 | 15 | 380 | 31-208 | 500-40 |
PS37000 | 37 | 380 | 40-150 | 700-210 |
PS45000 | 45 | 380 | 50-180 | 700-210 |
PS55000 | 55 | 380 | 65-200 | 700-210 |
- Q: How do I monitor the performance of a solar pump system?
- To monitor the performance of a solar pump system, there are several key steps you can take: 1. Install monitoring equipment: Start by installing a monitoring system that can track and record various parameters of the solar pump system. This may include sensors to measure solar radiation, pump output, battery voltage, water flow rate, and other relevant variables. The monitoring equipment can be connected to a central control unit or a data logger for data collection. 2. Set performance benchmarks: Determine the performance benchmarks or targets for your solar pump system. These benchmarks may include desired water flow rate, battery charge level, or pump efficiency. Having clear benchmarks will help you evaluate whether the system is performing optimally or if there are any issues that need attention. 3. Regularly review data: Check the monitoring data regularly to assess the system's performance. This can be done by analyzing the collected data manually or by using software that can present the data in a more organized and comprehensive manner. Look for any deviations from the benchmarks and identify any patterns or trends in the system's performance. 4. Conduct performance audits: Periodically conduct performance audits to evaluate the overall efficiency and effectiveness of the solar pump system. This can involve observing the system's operation, measuring parameters on-site, and comparing the results with the benchmarks. Performance audits can help identify any inefficiencies, malfunctions, or maintenance needs. 5. Utilize remote monitoring: Consider using remote monitoring capabilities if available. Remote monitoring allows you to access real-time data and receive alerts or notifications if any critical parameters deviate from the desired range. This offers the advantage of proactive monitoring and early detection of potential issues, enabling timely corrective actions. 6. Regular maintenance and servicing: Ensure regular maintenance and servicing of the solar pump system. This includes cleaning of solar panels, checking and tightening connections, inspecting pipes and valves, and testing the overall system functionality. Proper maintenance ensures optimal performance and helps prevent any potential breakdowns or inefficiencies. 7. Seek professional assistance: If you are unsure about monitoring the system yourself, consider consulting with a professional solar installer or a technician specialized in solar pump systems. They can provide guidance on the specific monitoring equipment and procedures needed for your system, as well as offer expert advice on troubleshooting and optimizing its performance. By implementing these steps, you can effectively monitor the performance of your solar pump system, identify any issues or inefficiencies, and take appropriate actions to ensure its optimal operation.
- Q: How does the quality of solar panels affect the performance of a solar pump system?
- The quality of solar panels directly impacts the performance of a solar pump system. High-quality panels with superior materials and manufacturing processes are more efficient in converting sunlight into electricity, providing a higher power output. This increased power output ensures that the solar pump system operates optimally, delivering a higher water flow rate and pressure. On the other hand, low-quality panels may have lower efficiency, resulting in reduced power output and therefore a decrease in the overall performance of the solar pump system.
- Q: How does the angle and orientation of solar panels affect the performance of a solar pump?
- The angle and orientation of solar panels have a significant impact on the performance of a solar pump. The angle refers to the tilt of the solar panels, while the orientation refers to the direction they face. The angle at which solar panels are installed affects their efficiency by determining the amount of sunlight they receive. Solar panels work by converting sunlight into electricity, and the angle at which they are tilted determines the amount of sunlight they can capture. The optimal angle depends on the geographical location of the solar pump. For example, in regions near the equator, a flat or low tilt angle is preferable to maximize the exposure to the sun throughout the year. In contrast, in higher latitudes, a steeper tilt angle is recommended to compensate for the lower intensity of sunlight. The orientation of solar panels refers to the direction they face, typically either towards the south or north depending on the hemisphere. In the Northern Hemisphere, for instance, solar panels should face south to capture the maximum amount of sunlight. By facing south, solar panels can receive sunlight for the longest duration during the day. Similarly, in the Southern Hemisphere, solar panels should face north for optimal performance. The angle and orientation of solar panels also impact the efficiency of a solar pump by influencing the angle of incidence, which is the angle at which sunlight strikes the surface of the panels. When sunlight strikes the panels at a perpendicular angle, it is most efficiently converted into electricity. If the angle of incidence is too high or too low, the efficiency of the solar panels decreases. Adjusting the tilt angle and orientation helps to optimize the angle of incidence, thus maximizing the energy output of the solar pump. Overall, the angle and orientation of solar panels are crucial factors in determining the performance of a solar pump. By adjusting these parameters according to the geographical location, it is possible to optimize the capture of sunlight and maximize the efficiency of the solar pump.
- Q: Can a solar pump be used for water supply in remote eco-lodges?
- Yes, a solar pump can be used for water supply in remote eco-lodges. Solar pumps are an efficient and sustainable solution for providing water in remote locations where access to electricity may be limited. They harness solar energy to power the pump, allowing for a reliable and eco-friendly water supply system.
- Q: How does the tilt angle of the solar panel affect the performance of a solar pump?
- The tilt angle of a solar panel plays a crucial role in determining the performance of a solar pump. The purpose of adjusting the tilt angle is to optimize the panel's exposure to sunlight and maximize energy conversion efficiency. The tilt angle determines the angle at which the solar panel is positioned relative to the sun's rays. By adjusting the tilt angle, it is possible to maximize the amount of sunlight that falls on the panel's surface throughout the day. This is particularly important because the intensity and angle of sunlight vary throughout the year. When the solar panel is tilted at an optimal angle, it increases the amount of sunlight captured by the panel, which in turn increases the amount of electricity generated. This is essential for powering the solar pump efficiently and maintaining a consistent flow rate. If the tilt angle is too high, the solar panel may receive excessive sunlight, leading to overheating. This can reduce the panel's efficiency and potentially damage its components. On the other hand, if the tilt angle is too low, the panel may not receive enough sunlight to generate sufficient power, resulting in reduced pump performance. Furthermore, the tilt angle also affects the self-cleaning capability of the solar panel. Rainfall can help wash away dust and debris from the panel's surface, improving its efficiency. By adjusting the tilt angle, the panel can be positioned to facilitate self-cleaning, ensuring optimal performance. Overall, the tilt angle of a solar panel is crucial in determining the performance of a solar pump. By adjusting the tilt angle to optimize exposure to sunlight, it maximizes energy conversion efficiency, enhances the pump's performance, and ensures the longevity of the system.
- Q: How does a solar pump handle water pH levels?
- A solar pump does not directly handle water pH levels, as its primary function is to pump water using solar energy. However, the materials used in the construction of the pump, such as the pump casing and impeller, may be designed to withstand a range of pH levels. The actual management of water pH levels would typically involve other components or systems, such as water treatment or filtration units, which can be integrated with the solar pump setup if necessary.
- Q: Can a solar pump be used in commercial agriculture?
- Yes, a solar pump can be used in commercial agriculture. Solar pumps are increasingly being adopted in commercial agriculture as they offer a sustainable and cost-effective solution for irrigation needs. Solar pumps are powered by sunlight, eliminating the need for grid electricity or fuel, making them environmentally friendly and reducing operational costs for farmers. Additionally, solar pumps can be easily set up and relocated, providing flexibility in irrigation planning and adapting to changing agricultural needs.
- Q: Can a solar pump be used for water supply in farms or agricultural fields?
- Indeed, one can utilize a solar pump to facilitate water supply in farms or agricultural fields. Solar pumps present a cost-efficient and eco-friendly solution for nourishing crops and livestock. By harnessing solar energy to drive the pump, the reliance on electricity or fuel becomes obsolete. These pumps cater to a range of agricultural needs, including irrigation, livestock hydration, and general water distribution. Particularly in remote zones where grid electricity is either unavailable or exorbitantly priced, solar pumps prove to be a valuable asset. They demand minimal maintenance, boast reliability, and boast a lengthy lifespan, rendering them ideal for uninterrupted use in agricultural environments. Furthermore, solar pumps actively aid in diminishing carbon emissions and the dependence on fossil fuels, consequently contributing to a more sustainable and environmentally conscious agricultural sector.
- Q: What is the average cost of a solar pump?
- The average cost of a solar pump typically ranges from $1,500 to $5,000, depending on factors such as the pump's capacity, quality, and additional features.
- Q: Are solar pumps noisy?
- No, solar pumps are not noisy. They operate quietly and do not produce any significant noise or vibrations.
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Wbs Solar Pump AC Solar Agricultural Irrigation Systems
- Ref Price:
-
- Loading Port:
- Shekou
- Payment Terms:
- TT OR LC
- Min Order Qty:
- 20 set
- Supply Capability:
- 800000 set/month
OKorder Service Pledge
OKorder Financial Service
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