Hybrid wind energy and hydrogen system for direct CO2 air capture: A case study

This study addresses urgent environmental challenges by proposing an innovative hybrid system that integrates wind energy and green hydrogen production to power direct CO 2 air capture (DAC) at three sites in northern Morocco. The novelty of this work lies in its scalable design, combining renewable energy with DAC technology to create a sustainable solution for carbon reduction. Wind potential was analyzed using the Weibull distribution to ensure statistical reliability for eight commercial turbines. Hydrogen production employed proton exchange membrane (PEM) electrolysis, recognized for its efficiency. Among the turbines, T 5 demonstrated superior performance, producing 3971–7545 MWh/year with capacity factors from 29.5 % to 57.7 %. Hydrogen yields ranged from 53,575.02 to 101,793.90 kg, with storage volumes between 1413.79 and 2686.23 m 3 . A key strength of this study is its detailed techno-economic analysis, showing low costs of electricity (LCOE) , hydrogen (LCOH) , and CO 2 capture (LCOD) . Additionally, T 6 and T 8 turbines were identified as competitive alternatives, while others were excluded due to higher costs. This study highlights the effectiveness of wind-hydrogen hybrid systems, with CO 2 capture ranging from 1313.22 to 12,882.35 tons across the sites. It also demonstrates their economic feasibility , contributing to the goals of clean energy, sustainable cities, and climate action.

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Publication Details

Journal
Renewable Energy
Published
2025-04-06
DOI
https://doi.org/10.1016/j.renene.2025.123028
Citations
6
Primary Topic
Carbon Dioxide Capture Technologies
Type
article
Field-Weighted Citation Impact
4.28
Controls
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article

Hybrid wind energy and hydrogen system for direct CO2 air capture: A case study

Mohammed Daoudi
6 citations
Renewable Energy
Carbon Dioxide Capture Technologies
4.28
article

Hybrid wind energy and hydrogen system for direct CO2 air capture: A case study

Mohammed Daoudi
article en
6 citations

Abstract

This study addresses urgent environmental challenges by proposing an innovative hybrid system that integrates wind energy and green hydrogen production to power direct CO 2 air capture (DAC) at three sites in northern Morocco. The novelty of this work lies in its scalable design, combining renewable energy with DAC technology to create a sustainable solution for carbon reduction. Wind potential was analyzed using the Weibull distribution to ensure statistical reliability for eight commercial turbines. Hydrogen production employed proton exchange membrane (PEM) electrolysis, recognized for its efficiency. Among the turbines, T 5 demonstrated superior performance, producing 3971–7545 MWh/year with capacity factors from 29.5 % to 57.7 %. Hydrogen yields ranged from 53,575.02 to 101,793.90 kg, with storage volumes between 1413.79 and 2686.23 m 3 . A key strength of this study is its detailed techno-economic analysis, showing low costs of electricity (LCOE) , hydrogen (LCOH) , and CO 2 capture (LCOD) . Additionally, T 6 and T 8 turbines were identified as competitive alternatives, while others were excluded due to higher costs. This study highlights the effectiveness of wind-hydrogen hybrid systems, with CO 2 capture ranging from 1313.22 to 12,882.35 tons across the sites. It also demonstrates their economic feasibility , contributing to the goals of clean energy, sustainable cities, and climate action.

Renewable EnergyVol. 247
Mohammed V University (MA)
Affordable and clean energy
Openalex Percentile: Top 6%
Carbon Dioxide Capture Technologies
4.28
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