José David Martínez-Soto, Ismael Molina-Moreno, Marco Vinicio Chávez-Báez, 等. Experimental design and validation of a domestic solar-powered water pumping system for urban areas with irregular supply[J]. 清洁能源(英文), 2026,(1).
José David Martínez-Soto, Ismael Molina-Moreno, Marco Vinicio Chávez-Báez, María del Carmen García-Ramírez, Javier Correa-Gómez, Experimental design and validation of a domestic solar-powered water pumping system for urban areas with irregular supply, Clean Energy, Volume 10, Issue 1, February 2026, Pages 94–105, https://doi.org/10.1093/ce/zkaf063
José David Martínez-Soto, Ismael Molina-Moreno, Marco Vinicio Chávez-Báez, 等. Experimental design and validation of a domestic solar-powered water pumping system for urban areas with irregular supply[J]. 清洁能源(英文), 2026,(1). DOI: 10.1093/ce/zkaf063.
José David Martínez-Soto, Ismael Molina-Moreno, Marco Vinicio Chávez-Báez, María del Carmen García-Ramírez, Javier Correa-Gómez, Experimental design and validation of a domestic solar-powered water pumping system for urban areas with irregular supply, Clean Energy, Volume 10, Issue 1, February 2026, Pages 94–105, https://doi.org/10.1093/ce/zkaf063DOI:
Experimental design and validation of a domestic solar-powered water pumping system for urban areas with irregular supply
摘要
Abstract
In many urban areas of Morelia
Michoacán
the water supply is intermittent
compelling residents to store water in cisterns and pump it to rooftop tanks using conventional electric systems. This study proposes the design and experimental validation of a domestic solar photovoltaic water pumping system as a sustainable and cost-effective solution for regions with irregular water supply. A sizing methodology is presented
which accounts for the required water volume
flow rate based on solar hours
barometric head
and losses due to friction and fittings. To validate the proposed system
an experimental case study was conducted using a 330 W PV panel
a 300 W buck converter
and a 48 W pump
achieving a flow rate of 6.9 L/min and a total dynamic head of 12.57 m. The results show that under real operating conditions
the system demonstrated an efficiency of 29.9% and a service capacity of 4.14 individuals per hour of effective sunlight or 1208.8 m3 per year considering 8 hours of effective sunlight. In addition
the experimental results were validated using the PVSyst simulator
which indicated an annual pumped water of 1204 m3 per year
which closely matches with the experimental results. The results confirm the technical feasibility of the proposed alternative to improve water access in vulnerable urban areas with irregular supply.