• Solar Water Pump System 0.1KW-37KW for Agricultural Irrigation/ Helen System 1
  • Solar Water Pump System 0.1KW-37KW for Agricultural Irrigation/ Helen System 2
  • Solar Water Pump System 0.1KW-37KW for Agricultural Irrigation/ Helen System 3
Solar Water Pump System 0.1KW-37KW for Agricultural Irrigation/ Helen

Solar Water Pump System 0.1KW-37KW for Agricultural Irrigation/ Helen

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Loading Port:
Shanghai
Payment Terms:
TT OR LC
Min Order Qty:
10 pc
Supply Capability:
1000 pc/month

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The photovoltaic pumping system is different from the traditional AC pumping system , and the photovoltaic pumping system utilizes solar cells convert solar energy into electric energy , then the photovoltaic pumping inverter drives ac motor for the pump running , and pumping up water from water well , river , lake etc areas and then transport to the destination to satisfy our requests for the water demand .

 

Photovoltaic arrays adopts solar radiation energy to convert it to electric power ,providing the motive power for the whole system . And the function of the solar pumping inverter is converting the DC power output from PV array to AC power to drive the pump to finalize the water pumping up as well as adjusting the output power real-timely according to the change of sunlight intensity , in this way , the system realizes the max power point tracking and the solar energy can be utilized furthest

The whole system solves the water pumping up requests perfectly , omitting the battery bank and charge controller etc equipments , so it is very economical and environmental . Since they are with the merits of low carbon , energy conversation , environmental protection etc , so they  have a broad market foreground and great social value

 

 

2.2 Application

  1.  Agricultural irrigation

  2.  Desert manage

  3.  Domestic water

  4.  Grassland animal husbandry

  5.  city waterscape

  6.  Island water supply

  7.  Landscape and fountain system of municipal engineering , city square , hotels and residence community

 

 

2.3 About product

This product is using a high performance digital signal processing chip, can provide solution for solar water pumpingsystem with high cost performance. Solar pumping system as a whole block diagram as shown in 2.   

 

SHP series inverter has the following features:

  1. a.     True max power tracking technology (TMPPT) with our own intellectual property; effectively improve the use ratio of PV array.  The stable tracking efficiency can reach 99.2% , Solving the problem of bad tracking efficiency and running unstability under the situation of sunlight intensity quick change when comparing with the traditional MPPT method .

b. Adopt efficient IPM power module from Mitsubishi Company with high reliability.

c. With the function of high and low water level detection , high safety factor.

d. Automatic anti-drying protection function , with multi-protection for motor

e. Multi-language LCD display , easy for operation , very user-friendly 

f. The independent developed principal computer with our own intellectual properties , remote monitoring is available  

g. Modular design , direct plug-in terminal , good-looking appearance, easy for installation , operation and maintenance . 

h. Suitable for the pump adopted three phase asynchronous motor

i. Complete digital control , with the function of full automatic running and data storage .

j. Perfect protection system , with the protection function for lighting , over voltage , under voltage , short circuit , over loads , water drain off , low sunlight , over heating etc ,

k. Adopt the complete radiating system , so radiating efficiency is better and the service life is longer

l. Through strict environmental test , adapt the rigorous environment :-10~+50

m.No impacted mains supply power switch function (optional ), All-weather running available

n. Through strict environmental test , adapt the rigorous environment :-10~+50

 

 

Q: Can a solar pump be integrated with existing water infrastructure?
Yes, a solar pump can be integrated with existing water infrastructure. Solar pumps are designed to be compatible with various types of water infrastructure systems, including irrigation systems, water supply networks, and even household plumbing systems. The integration process typically involves connecting the solar pump to the existing water infrastructure through pipes, valves, and fittings. This allows the solar pump to draw water from existing sources, such as wells or lakes, and distribute it to the desired locations. Additionally, solar pumps can be equipped with sensors and controllers that enable them to interact with the existing water infrastructure more efficiently, optimizing water flow and pressure. Overall, integrating a solar pump with existing water infrastructure offers a sustainable and cost-effective solution for pumping water while reducing reliance on conventional energy sources.
Q: How does a solar pump handle water source contamination from natural disasters?
A solar pump does not directly handle water source contamination caused by natural disasters. However, it can play a crucial role in providing access to clean and safe water in situations where traditional water supply systems may be compromised or damaged. Solar pumps can be used to extract water from deep wells, rivers, or lakes and then the water can be treated or filtered to remove any contaminants before consumption or use. Additionally, solar pumps can be easily deployed and operated in disaster-stricken areas, as they do not rely on an electrical grid and can continue functioning even in the absence of power.
Q: How do I protect a solar pump system from lightning strikes?
To ensure the longevity and functionality of your solar pump system, it is crucial to protect it from lightning strikes. Below are several steps you can take to safeguard your system: 1. Implement a lightning protection system (LPS): A well-designed LPS will redirect lightning strikes to the ground, effectively shielding your solar pump system. This typically involves the installation of lightning rods at the highest points of the system, which are then connected to a grounding system. 2. Establish proper grounding: It is important to ensure that your solar pump system is adequately grounded. This entails connecting all metal components to a grounding conductor that leads to an appropriate grounding electrode, such as a grounding rod. Proper grounding aids in dissipating the electrical charge from lightning strikes. 3. Utilize surge protection devices (SPDs): Incorporating surge protectors in your system will absorb and redirect voltage spikes caused by lightning. SPDs are specifically designed to handle large electrical surges and prevent damage to sensitive equipment. 4. Employ shielding and bonding techniques: Shielding involves the installation of conductive materials, such as metal sheets or mesh, around vulnerable components to divert lightning strikes away from them. Bonding, on the other hand, involves connecting all metal components together to create a continuous conductive path, thereby reducing the risk of damage from electrical potential differences. 5. Disconnect during storms: It is advisable to disconnect your solar pump system from the power source and turn it off whenever a thunderstorm is approaching. This precautionary measure minimizes the risk of damage during a lightning strike. 6. Regularly maintain your system: Ensure that your solar pump system undergoes regular inspections and maintenance. Check for loose connections, damaged wiring, or any other potential vulnerabilities that may increase the risk of damage from lightning strikes. Promptly repair or replace any faulty components. It is important to note that while these measures significantly reduce the risk of damage from lightning strikes, they do not guarantee 100% protection. In extreme cases, it may be necessary to consult with a professional electrician or engineer to develop a comprehensive lightning protection system tailored to your specific needs.
Q: How does the voltage and current output of the solar panel affect the performance of a solar pump?
The voltage and current output of a solar panel directly affect the performance of a solar pump. The voltage output of the solar panel determines the amount of electrical potential energy available to power the pump. A higher voltage output means more energy can be delivered to the pump, resulting in higher performance. Conversely, a lower voltage output will limit the amount of energy available and can lead to reduced pump performance. The current output of the solar panel determines the rate at which the energy is delivered to the pump. A higher current output means more energy is flowing per unit of time, resulting in faster and more efficient pumping. A lower current output will reduce the energy flow, resulting in slower pumping and decreased performance. It is important for the voltage and current output of the solar panel to be matched with the requirements of the solar pump. If the voltage or current output is too low, the pump may not operate at its optimal capacity or may not work at all. On the other hand, if the voltage or current output is too high, it can overload the pump or cause damage to its components. In conclusion, the voltage and current output of a solar panel significantly affect the performance of a solar pump. The right balance of voltage and current output is crucial for optimal pump performance and ensuring the longevity of the system.
Q: What is the maximum temperature range in which a solar pump can operate?
The maximum temperature range in which a solar pump can operate typically depends on the specific model and design, but most solar pumps can function within a temperature range of -20°C to 50°C (-4°F to 122°F).
Q: Can a solar pump be used in areas with limited access to fuel for traditional pumps?
Yes, a solar pump can be used in areas with limited access to fuel for traditional pumps. Solar pumps are powered by sunlight, eliminating the need for fuel or electricity. They can provide a reliable and sustainable solution for pumping water, making them suitable for remote and off-grid locations where fuel may be scarce or expensive to transport.
Q: How does the altitude or elevation affect the performance of a solar pump?
The altitude or elevation affects the performance of a solar pump primarily due to the changes in atmospheric pressure. As one goes higher in altitude, the atmospheric pressure decreases, which in turn affects the pump's ability to generate suction and lift water. At higher altitudes, the pump may experience reduced efficiency and lower water output. Additionally, lower atmospheric pressure can also impact the efficiency of the solar panels used to power the pump, leading to decreased power generation. Therefore, it is important to consider and adjust for the altitude or elevation when designing and installing a solar pump system.
Q: Can a solar pump be used in remote areas?
Yes, a solar pump can be used in remote areas. Since solar pumps rely on sunlight to generate power, they can be an effective solution for providing water in areas where access to electricity is limited or non-existent. Their self-sufficiency and ability to operate independently make them ideal for remote locations, allowing for reliable and sustainable water supply for various purposes such as irrigation, livestock, or domestic use.
Q: Can a solar pump be used for irrigation?
Yes, a solar pump can be used for irrigation. Solar pumps are capable of utilizing solar energy to power water pumps, allowing for efficient and sustainable irrigation systems. These pumps can provide a reliable source of water for agricultural purposes, reducing the dependency on traditional energy sources and minimizing environmental impact.
Q: Are there any environmental benefits to using a solar pump?
Yes, there are several environmental benefits to using a solar pump. Firstly, solar pumps rely on renewable energy sources, such as sunlight, to generate power, which significantly reduces dependence on fossil fuels and decreases greenhouse gas emissions. Additionally, solar pumps do not require fuel or electricity from the grid, reducing the overall carbon footprint. Moreover, solar pumps have minimal noise pollution and do not contribute to air or water pollution, making them environmentally-friendly alternatives to traditional pumps.

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