• Outdoor Solar Water Pump - Centrifugal Pump System 0.65kW for Agricultural Irrigation System 1
  • Outdoor Solar Water Pump - Centrifugal Pump System 0.65kW for Agricultural Irrigation System 2
  • Outdoor Solar Water Pump - Centrifugal Pump System 0.65kW for Agricultural Irrigation System 3
  • Outdoor Solar Water Pump - Centrifugal Pump System 0.65kW for Agricultural Irrigation System 4
Outdoor Solar Water Pump - Centrifugal Pump System 0.65kW for Agricultural Irrigation

Outdoor Solar Water Pump - Centrifugal Pump System 0.65kW for Agricultural Irrigation

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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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Solar Water Pump Centrifugal Pump System 0.65KW for Agricultural Irrigation

 

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

 

 

FAQ

1.    How fast will my system respond to a power outage?

Our solar inverters typically transfer to battery power in less than 16 milliseconds (less than 1/50th of a second).

2.    What kind of batteries do the systems include?

Our solar backup electric systems use special high-quality electric storage batteries.

3.    How do I install my system?

A solar backup inverter is connected to a home electric system , we will supply detailed installation manual and videos for our customers .

Q: What is the expected life expectancy of the solar panels in a solar pump system?
The expected life expectancy of solar panels in a solar pump system can vary, but on average, they have a lifespan of about 25 to 30 years. However, with proper maintenance and care, some solar panels have been known to last up to 40 years or more.
Q: Can a solar pump be used for water supply in schools or community centers?
Yes, a solar pump can be effectively used for water supply in schools or community centers. Solar pumps are ideal for remote or off-grid locations where access to electricity is limited. They use solar energy to power the pump, which means they are cost-effective and environmentally friendly. Solar pumps can provide a reliable and sustainable water supply, making them an excellent choice for schools or community centers.
Q: Are there any limitations to the size of the solar pump system that can be installed?
There are certain restrictions on the size of the solar pump system that can be installed. One of these limitations is the space available for installation. To install the solar panels, a sufficient area with good sunlight exposure is required. If there is limited space or if the available space is shaded, it may not be feasible to install a large solar pump system. In addition, the size of the pump system is limited by the capacity of the solar panels to generate electricity. The amount of power that can be produced is determined by the size of the solar panels, and this power is used to operate the pump. If the solar panels have a lower capacity, it will restrict the size of the pump system that can be installed. Another factor that limits the size of the solar pump system is the water source and the amount of water that needs to be pumped. The solar pump system must be compatible with the water demand and the capacity of the water source. If the water demand is high or the water source has limited capacity, it may not be possible to install a large solar pump system. Lastly, budget constraints can also restrict the size of the solar pump system. Larger systems generally require more solar panels, batteries, and other components, resulting in higher costs. If there is a limited budget, it may not be viable to install a larger system, and a smaller pump system would be more suitable. In conclusion, although solar pump systems provide a sustainable and efficient solution for water pumping, their size is limited by factors such as space availability, solar panel capacity, water source, and budget constraints. It is crucial to carefully evaluate these factors before determining the appropriate size of the solar pump system to be installed.
Q: Can a solar pump be used in areas with limited access to backup battery systems?
Yes, a solar pump can be used in areas with limited access to backup battery systems. Solar pumps operate directly on solar power, converting sunlight into energy to power the pump. As long as there is enough sunlight available, the solar pump can operate without the need for backup batteries. This makes it a suitable option for areas with limited access to backup battery systems or unreliable power supply.
Q: How long does it take to recoup the investment in a solar pump system?
The time it takes to recoup the investment in a solar pump system depends on various factors such as the initial cost of the system, the amount of energy savings achieved, and any applicable government incentives or subsidies. On average, it can take between 5 to 10 years to recover the investment in a solar pump system through reduced electricity bills and potential revenue from selling excess energy back to the grid. However, this timeframe can vary significantly depending on individual circumstances and regional factors.
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: Is it possible to retrofit an existing pump system with solar power?
Yes, it is possible to retrofit an existing pump system with solar power. Retrofitting involves integrating solar panels and a solar power converter into the existing system. The solar panels would be installed in a location where they receive maximum sunlight exposure, typically on the roof or nearby area. The solar power converter is then connected to the existing pump system, allowing it to draw power from the solar panels. This setup enables the pump system to operate independently of the electrical grid, reducing or even eliminating the need for conventional electricity. Retrofitting with solar power offers several advantages, including lower operating costs, reduced carbon emissions, and increased energy independence. However, it is important to consider the specific requirements of the pump system and ensure that the solar power capacity is sufficient to meet the system's needs.
Q: Are there any limitations to the size of the water reservoir that a solar pump can fill?
The filling capacity of a water reservoir by a solar pump is indeed limited. Several factors, such as the solar panels' power output, the pump's efficiency, and the amount of sunlight available, determine the size of the reservoir that can be filled. Solar pumps are primarily designed for small to medium-scale uses, such as supplying water for livestock, irrigation, or domestic purposes. Due to their limited power output, these pumps may not efficiently fill large water reservoirs. Moreover, the pump's efficiency is a key factor in determining the reservoir's size that can be filled. Some solar pumps have a lower flow rate, which restricts the amount of water they can transfer to a reservoir within a specific timeframe. Furthermore, the availability of sunlight greatly impacts the performance of solar pumps. In areas with limited sunlight or frequent cloudy days, the pump's ability to fill a large reservoir may be compromised. Hence, while solar pumps offer an environmentally friendly and sustainable water pumping solution, they do have limitations regarding the size of the reservoir they can effectively fill. It is crucial to consider these factors when selecting an appropriate size and application for a solar pump.
Q: How much sunlight does a solar pump require to operate?
A solar pump typically requires a minimum of 4-5 hours of direct sunlight to operate efficiently.
Q: How does the size of the water pipe affect the performance of a solar pump?
The size of the water pipe has a significant impact on the performance of a solar pump. The size of the pipe determines the flow rate and pressure that the pump can generate, ultimately affecting its efficiency and effectiveness. A smaller pipe diameter restricts the flow of water, leading to reduced flow rates and lower pump performance. This can result in inadequate water delivery, slower filling of tanks or reservoirs, and longer pumping durations. Additionally, the reduced flow rate can cause backpressure on the pump, increasing the load and potentially affecting its longevity. On the other hand, a larger pipe diameter allows for higher flow rates, resulting in improved pump performance and faster water delivery. This means that the pump can fill tanks or reservoirs more quickly and operate more efficiently. Furthermore, a larger pipe diameter reduces the backpressure on the pump, helping to extend its lifespan and reduce maintenance costs. It is important to note that while a larger pipe diameter generally improves pump performance, there is still an optimal pipe size that needs to be considered. If the pipe is too large, it can lead to excessive friction losses and increased energy consumption, negating the benefits of the larger diameter. Therefore, selecting the appropriate pipe size that matches the pump's specifications and the required water flow is crucial for optimal performance. In conclusion, the size of the water pipe significantly affects the performance of a solar pump. Selecting the right pipe diameter ensures efficient water flow, faster delivery, reduced backpressure, and ultimately maximizes the pump's effectiveness and longevity.

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