Application of nanomaterials in solar cell

This paper explores the application of nanomaterials in solar cells, emphasizing the urgent need for renewable energy due to fossil fuel depletion and rising energy demands. It categorizes solar cells into three generations: silicon-based, semiconductor compounds, and novel nanomaterials. The third generation, including perovskite, nanowires, dye-sensitized, and quantum dot solar cells, shows significant potential for enhanced efficiency and reduced costs. Perovskite cells achieve high efficiency but face stability and environmental challenges. Nanowire cells offer material reduction and improved absorption but have lower efficiency. Dye-sensitized cells have advanced in stability and are promising for portable applications. Quantum dot cells benefit from core/shell structures and innovative materials. The paper concludes that the future of nanomaterial solar cells hinges on further improving efficiency, durability, and economic viability. Emphasis is placed on optimizing material structures, enhancing longevity under environmental conditions, innovating manufacturing processes, and expanding applications in diverse markets. The development of environmentally friendly nanomaterials is also crucial for sustainable energy solutions. The broad potential of these advanced solar cells promises significant advancements in renewable energy technologies.

Publication Details

Journal
Springer Link (Chiba Institute of Technology)
Published
2024-10-24
DOI
https://doi.org/10.1051/matecconf/202440403007/pdf
Primary Topic
Chemical and Physical Properties of Materials
Type
article
Field-Weighted Citation Impact
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article

Application of nanomaterials in solar cell

Springer Link (Chiba Institute of Technology)
Chemical and Physical Properties of Materials
article

Application of nanomaterials in solar cell

article en

Abstract

This paper explores the application of nanomaterials in solar cells, emphasizing the urgent need for renewable energy due to fossil fuel depletion and rising energy demands. It categorizes solar cells into three generations: silicon-based, semiconductor compounds, and novel nanomaterials. The third generation, including perovskite, nanowires, dye-sensitized, and quantum dot solar cells, shows significant potential for enhanced efficiency and reduced costs. Perovskite cells achieve high efficiency but face stability and environmental challenges. Nanowire cells offer material reduction and improved absorption but have lower efficiency. Dye-sensitized cells have advanced in stability and are promising for portable applications. Quantum dot cells benefit from core/shell structures and innovative materials. The paper concludes that the future of nanomaterial solar cells hinges on further improving efficiency, durability, and economic viability. Emphasis is placed on optimizing material structures, enhancing longevity under environmental conditions, innovating manufacturing processes, and expanding applications in diverse markets. The development of environmentally friendly nanomaterials is also crucial for sustainable energy solutions. The broad potential of these advanced solar cells promises significant advancements in renewable energy technologies.

Springer Link (Chiba Institute of Technology)
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Chemical and Physical Properties of Materials
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Application of nanomaterials in solar cell · Springer Link (Chiba Institute of Technology) (2024) | TGRS Research Map | TGRS