Climatic Impact on the Performance and Economics of Solar–Wind–Fuel Cell Hybrids in India

Evaluating the technical performance and economic feasibility of solar–wind–fuel cell hybrid systems is increasingly vital to meet India’s growing energy demands across diverse climates. Given India’s geographical expanse, hybrid renewable systems leverage resource complementarity to deliver reliable and sustainable power, overcoming the intermittency inherent in standalone systems. In arid zones like Rajasthan, high solar irradiance provides optimal photovoltaic output despite limited wind. Conversely, coastal areas like Tamil Nadu and Gujarat benefit from strong wind corridors that offset reduced solar generation during monsoon cloud cover. In hilly or northeastern regions, resource variability makes efficient energy storage essential. Hydrogen-powered fuel cells play a critical stabilizing role by storing surplus power and generating electricity during low renewable output, thereby ensuring continuous supply and improved load management. Compared to standalone setups, hybrid configurations achieve higher capacity factors, superior resilience, and reduced power fluctuations. Advanced energy management systems further optimize resource utilization, making these systems especially valuable for remote and off-grid electrification where grid extension is impractical. Economically, hybrid systems carry high initial capital expenses for infrastructure installation. However, lifecycle analyses show that long-term benefits—such as minimal emissions, zero fuel costs, and low maintenance—outweigh upfront expenditures. Regions rich in solar and wind potential yield faster returns on investment, while supportive Indian government policies, subsidies, and incentives significantly improve economic viability. Ultimately, solar–wind–fuel cell hybrids offer a robust framework for decentralized energy. Adopting region-specific design and optimization will address existing cost and technical challenges, driving India’s transition toward a clean and resilient energy future

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-27
DOI
https://doi.org/10.5281/zenodo.23689416
Primary Topic
Hybrid Renewable Energy Systems
Type
article
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article

Climatic Impact on the Performance and Economics of Solar–Wind–Fuel Cell Hybrids in India

Dr. Sandeep Kumar Yadav, Santosh Uttamrao Bande
2 links
Zenodo (CERN European Organization for Nuclear Research)
Hybrid Renewable Energy Systems
article

Climatic Impact on the Performance and Economics of Solar–Wind–Fuel Cell Hybrids in India

Dr. Sandeep Kumar Yadav, Santosh Uttamrao Bande
article en

Abstract

Evaluating the technical performance and economic feasibility of solar–wind–fuel cell hybrid systems is increasingly vital to meet India’s growing energy demands across diverse climates. Given India’s geographical expanse, hybrid renewable systems leverage resource complementarity to deliver reliable and sustainable power, overcoming the intermittency inherent in standalone systems. In arid zones like Rajasthan, high solar irradiance provides optimal photovoltaic output despite limited wind. Conversely, coastal areas like Tamil Nadu and Gujarat benefit from strong wind corridors that offset reduced solar generation during monsoon cloud cover. In hilly or northeastern regions, resource variability makes efficient energy storage essential. Hydrogen-powered fuel cells play a critical stabilizing role by storing surplus power and generating electricity during low renewable output, thereby ensuring continuous supply and improved load management. Compared to standalone setups, hybrid configurations achieve higher capacity factors, superior resilience, and reduced power fluctuations. Advanced energy management systems further optimize resource utilization, making these systems especially valuable for remote and off-grid electrification where grid extension is impractical. Economically, hybrid systems carry high initial capital expenses for infrastructure installation. However, lifecycle analyses show that long-term benefits—such as minimal emissions, zero fuel costs, and low maintenance—outweigh upfront expenditures. Regions rich in solar and wind potential yield faster returns on investment, while supportive Indian government policies, subsidies, and incentives significantly improve economic viability. Ultimately, solar–wind–fuel cell hybrids offer a robust framework for decentralized energy. Adopting region-specific design and optimization will address existing cost and technical challenges, driving India’s transition toward a clean and resilient energy future

Zenodo (CERN European Organization for Nuclear Research)
ITM University (IN), Vikrant University (IN)
Affordable and clean energy, Industry, innovation and infrastructure, Climate action
Openalex Percentile: Top 24%
Hybrid Renewable Energy Systems
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Climatic Impact on the Performance and Economics of Solar–Wind–Fuel Cell Hybrids in India — Dr. Sandeep Kumar Yadav, Santosh Uttamrao Bande · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS