Agricultural Irrigation

Enhancing Food Security and Sustainability

Food and ecology are crucial for the survival and development of human society. According to FAO’s research report, 35% of the world’s agricultural production comes from irrigated agriculture, making effective agricultural irrigation a necessary condition for increasing food production. However, in some arid regions with water and electricity shortages, agricultural irrigation heavily relies on diesel generators, which have high maintenance and fuel costs, are noisy, and cause severe pollution, greatly damaging the environment.

LEO Solar Solution for Agricultural Irrigation

LEO solar water pumping system is stable and can be used in conjunction with irrigation facilities such as drip irrigation, sprinkler irrigation, and flood irrigation etc. It does not require diesel or the power grid and operates without human supervision. Water storage can replace electricity storage, saving both water and energy. This significantly reduces the use of fossil fuel-based power, greatly enhancing agricultural productivity and output, and transforming the agricultural landscape in arid regions. It is the most ideal solution for addressing agricultural irrigation issues.

Drip Irrigation

Sprinkler Irrigation

Flood Irrigation

How the System Works

By leveraging solar power, it ensures consistent and sustainable irrigation. The system can be paired with water storage tanks to provide water even during the night or cloudy days, reducing dependency on electricity.

Build Your Unique Agricultural Irrigation Solar Pumping System

To create the perfect irrigation system for your farm, we follow these steps:

STEP 01

Assess Crop and Water Needs

STEP 02

Design Power Generation and Supply Scheme

STEP 03

Determine Water Source

We need to determine where the water source of the pump comes from:
Make it essential to match your water source with the appropriate pump for optimal performance.

STEP 04

Calculate the Pump Head

Assuming the water source is from a well, then we need to determine the distance between each equipment. The following are the aspects to be considered:
Based on the above information, we can calculate the head of the pump you need.

STEP 05

Calculate the Pump Flow

In addition, we also need to obtain the local altitude and the latitude and longitude information of the local installation site to determine the local effective sunshine time.

Assuming that this farmland plants 10 hectares of cantaloupe, the corresponding water requirement for one day is 100m³. If the effective sunshine time of the local area is 5 hours, then the flow rate Q of the pump you need can be calculated as 20m³/h.

STEP 06

Recommend One-stop Solar Water Pumping System

We will select the suitable pump model based on the already determined head (m) + flow (m³/h), and match the corresponding controller, solar panel, cable wire and other configurations for you.

Related Solar Pumps for Agricultural Irrigation

Whether you need a system for a small farm or a large-scale agricultural operation, we have the perfect solution.

Have a Specific Project?

Kindly fill in the form followed or contact us to get a free, detailed solution tailored for you.

Be Our Partner

Please fill out the LEO Solar Pump Distributor Application Form if you’re interested in becoming one of our distributors.

Solar Submersible Pumps
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Solar Surface Pumps
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The energy-saving retrofit of AC pumps
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