Abstract:
The rapidly increasing demand for energy and the consequent depletion of non-renewable energy sources pose significant challenges. Seeking alternatives, renewable sources...Show MoreMetadata
Abstract:
The rapidly increasing demand for energy and the consequent depletion of non-renewable energy sources pose significant challenges. Seeking alternatives, renewable sources like solar cells come into focus. Nevertheless, their limited efficiency hinders practical application and motivates researchers to develop more efficient solar cells. Through an examination of effectiveness, design viability, and fabrication costs, Dye-Sensitized Solar Cells (DSSC) emerge as superior to other photovoltaic solar cells. In particular the dye component is crucial for how well the DSSC works as it absorbs light from the sun.The paper investigates the topic related to forecasting the absorption maxima (λmax) of dyes and presents an overview of the proposals in the literature that use neural networks to forecast it. In addition, it discusses the main challenges related to this relevant topic, evidencing the need to address these challenges.
Published in: 2023 IEEE International Conference on Big Data (BigData)
Date of Conference: 15-18 December 2023
Date Added to IEEE Xplore: 22 January 2024
ISBN Information:
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Maximum Absorption ,
- ANN-based Model ,
- Neural Network ,
- Renewable Sources ,
- Solar Cells ,
- Dye-sensitized Solar Cells ,
- Solar Photovoltaic ,
- Efficiency Of Solar Cells ,
- Maximum Λmax ,
- Molecular Weight ,
- Training Set ,
- Chemical Structure ,
- Molecular Structure ,
- Artificial Neural Network ,
- Dielectric Constant ,
- Ruthenium ,
- Organic Dyes ,
- Dye Molecules ,
- Solar Power ,
- Time-dependent Density Functional Theory ,
- Natural Dyes ,
- Quantitative Structure–property Relationship ,
- Perovskite Solar Cells ,
- Artificial Neural Network Model ,
- Dye Structure ,
- Atomic Weight
- Author Keywords
- solar ,
- DSSC ,
- artificial neural network ,
- energy ,
- λmax
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Maximum Absorption ,
- ANN-based Model ,
- Neural Network ,
- Renewable Sources ,
- Solar Cells ,
- Dye-sensitized Solar Cells ,
- Solar Photovoltaic ,
- Efficiency Of Solar Cells ,
- Maximum Λmax ,
- Molecular Weight ,
- Training Set ,
- Chemical Structure ,
- Molecular Structure ,
- Artificial Neural Network ,
- Dielectric Constant ,
- Ruthenium ,
- Organic Dyes ,
- Dye Molecules ,
- Solar Power ,
- Time-dependent Density Functional Theory ,
- Natural Dyes ,
- Quantitative Structure–property Relationship ,
- Perovskite Solar Cells ,
- Artificial Neural Network Model ,
- Dye Structure ,
- Atomic Weight
- Author Keywords
- solar ,
- DSSC ,
- artificial neural network ,
- energy ,
- λmax