DSSC sensitizers: A Panoramic comparison

Currently, energy and greenhouse gas emissions are the biggest problems. As a result of overpopulation and high energy consumption, non-renewable energy sources are continuously depleting. Greenhouse gases are also being emitted at a very high rate. The modern world must use renewable energy sources, among which solar energy is safe and available everywhere. Solar energy is efficiently transformed into electrical energy by photovoltaics (solar cells). During the past decades, DSSC the type of thin-film photovoltaics, gained importance due to cost-effectiveness, durability, ease fabrication, and low toxicity. These cells convert sunlight into electricity with power conversion efficiency approximately 20%. Glass substrate, photo-anode, sensitizer, electrolyte and counter electrode are the key components of DSSCs. Among these, sensitizers are the most important part of these cells that absorb photons, generate electrons, create electron-hole-pair and produce electricity. In the beginning, only ruthenium metal complexes were used as dyes, but now a large number of organic, inorganic and natural compounds are widely used to enhance the overall performance of these cells. This is in-depth review on solar cells but mainly focus on construction, operating principle, and performance of DSSCs. In this review, we not only presented a library of sensitizers used in DSSCs but also give a brief comparison between these sensitizers to help future research.

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Publication Details

Journal
Journal of the Turkish Chemical Society Section A Chemistry
Published
2025-02-28
DOI
https://doi.org/10.18596/jotcsa.1467947
Primary Topic
TiO2 Photocatalysis and Solar Cells
Type
article
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article

DSSC sensitizers: A Panoramic comparison

Mussarat Jabeen, Iqra Mutaza, Rabia Anwar
Journal of the Turkish Chemical Society Section A Chemistry
TiO2 Photocatalysis and Solar Cells
article

DSSC sensitizers: A Panoramic comparison

Mussarat Jabeen, Iqra Mutaza, Rabia Anwar
article en

Abstract

Currently, energy and greenhouse gas emissions are the biggest problems. As a result of overpopulation and high energy consumption, non-renewable energy sources are continuously depleting. Greenhouse gases are also being emitted at a very high rate. The modern world must use renewable energy sources, among which solar energy is safe and available everywhere. Solar energy is efficiently transformed into electrical energy by photovoltaics (solar cells). During the past decades, DSSC the type of thin-film photovoltaics, gained importance due to cost-effectiveness, durability, ease fabrication, and low toxicity. These cells convert sunlight into electricity with power conversion efficiency approximately 20%. Glass substrate, photo-anode, sensitizer, electrolyte and counter electrode are the key components of DSSCs. Among these, sensitizers are the most important part of these cells that absorb photons, generate electrons, create electron-hole-pair and produce electricity. In the beginning, only ruthenium metal complexes were used as dyes, but now a large number of organic, inorganic and natural compounds are widely used to enhance the overall performance of these cells. This is in-depth review on solar cells but mainly focus on construction, operating principle, and performance of DSSCs. In this review, we not only presented a library of sensitizers used in DSSCs but also give a brief comparison between these sensitizers to help future research.

Journal of the Turkish Chemical Society Section A ChemistryVol. 12(1)
Government Sadiq College Women University (PK)
Openalex Percentile: Top 98%
TiO2 Photocatalysis and Solar Cells
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