Publicado

2026-04-14

Simulación Tecnoeconómica de un Sistema Híbrido de Energías Renovables para una Estación de Bombeo de Combustible

Techno-Economic Simulation of a Hybrid Renewable Energy System for a Fuel Pumping Station

DOI:

https://doi.org/10.15446/sicel.v12.121222

Palabras clave:

Sistema Híbrido de Energía, Estación de Bombeo, Transición energética, Energías Renovables, Sector Oil & Gas, SAM (es)

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Autores/as

  • Evellyn Tatiana Torres Suarez Universidad ECCI
  • Juan Sebastián Solís-Chaves Universidad ECCI
  • Daniel Ricardo Ojeda CENIT

Este estudio estima el potencial técnico-económico de un sistema híbrido de generación renovable para una estación de bombeo de combustibles líquidos ubicada en el norte del Magdalena, Colombia, en el marco de un proyecto midstream del sector oil & gas, incorporando de una configuración solar fotovoltaica y eólica con baterías, dimensionada en SAM a partir de un perfil de carga en régimen de autoconsumo, en ese sentido, los resultados del sistema alcanza factores de capacidad del 23.7% y 9.4% para las fuentes solar y eólica respectivamente, con un LCOE real de 14.45¢/kWh, lo que permite cubrir aproximadamente el 70% de la demanda energética de la estación mediante una generación anual de 4.789,62 MWh, contribuyendo así a una operación más segura, menos dependiente de combustibles fósiles y alineada con criterios de sostenibilidad energética.

This study estimates the technical-economic potential of a hybrid renewable generation system for a liquid fuel pumping station located in the north of Magdalena, Colombia, within the framework of a midstream project of the oil & gas sector, incorporating a solar photovoltaic and wind configuration with batteries, sized in SAM from a load profile in self-consumption regime, in that sense, the results of the system reach capacity factors of 23. 7% and 9.4% for the solar and wind sources respectively, with a real LCOE of 14.45¢/kWh, which allows covering approximately 70% of the station's energy demand through an annual generation of 4,789.62 MWh, thus contributing to a safer operation, less dependent on fossil fuels and aligned with energy sustainability standards.

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Citas

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