This study presents a strategy for scheduling water delivery by irrigation pumps, synchronizing energy production in solar photovoltaic modules and minimizing the installation size. An optimization algorithm is proposed, which changes the energy required by pumping devices and adjusts them to the available solar energy supply, minimizing the number of panels required. The results of the study provide a tool for managers and decision-makers when evaluating the possibility of converting their irrigation network into a stand-alone system supplied by photovoltaic panels.

This report discusses the effects of solar radiation and total system head on techno-economics of a PV groundwater pumping irrigation system designed for sustainable agricultural production. The materials and methods of the study include crop water requirements, estimated pumping rates, estimations of PV-array ratings and solar charge controllers, and economic estimations of PV-pumping system(s). The results of the study also include an environmental impact analysis.

The study shows that installing a Photovoltaic Water Pumping System (PVWP) system represents the best technical and economic solution to drive a water pump that provides water for sprinkler irrigation. This application could be applied in AgriSolar operations that include sprinklers and agricultural land.

The purpose of this study was to describe the development of a solar-powered submersible pump system without the use of batteries in agriculture. The submersible pump system used a solar drive to run it. The implementation uses a combination of solar trackers, water storage tanks, power converters, and stabilizers. The results of the study explained that solar trackers increased the efficiency of solar units that track the sun throughout the day and convert solar energy into DC electrical power.

This paper presents solar-powered irrigation systems (SPIS) as a clean energy option for agriculture and rural electrification. Included is an overview of practice for SPISs, including how the sustainability of SPIS greatly depends on how water resources are managed.  


This paper proposes a solution for the present energy crisis for Indian farmers. It introduces a system consisting of a solar-powered water pump along with an automatic water flow control using a moisture sensor. This system could be applied to AgriSolar operations that required water pumping for various applications on a farm operation.

This paper presents the design of a solar tracking system via LDR sensor values to harness maximum solar energy that is converted into electrical energy which in turn is used to power the irrigation system. This system can be applied in AgriSolar operations where irrigation systems are included.

This paper presents an approach to minimize the human interface for the agriculture sector, which provides comfort to the farmer in monitoring and performs automatic irrigation operation. The approach discussed here can be applied to AgriSolar operations and development requiring irrigation.

This publication gives an introduction to solar-powered livestock-watering systems, including discussions of cost, components, and terminology, as well as some suggestions for designing and installing these systems.

Solar-based solutions can provide reliable, cost-effective, and environmentally sustainable energy for decentralized irrigation services. This paper analyzes the key drivers behind the adoption of solar pumping technology and brings to the forefront the cross-sector aspects that should be considered in program design and implementation.