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High-Efficiency and Low-Energy-Loss Organic Solar Cells Enabled by Tuning the End Group Modification of the Terthiophene-Based Acceptor Molecules to Enhance Photovoltaic Properties.


ABSTRACT: In the current study, six nonfullerene small acceptor molecules were designed by end-group modification of terminal acceptors. Density functional theory calculations of all designed molecules were performed, and optoelectronic properties were computed by employing different functionals. Every constructed molecule has a significant bathochromic shift in the maximum absorption value (λmax) except AM6. AM1-AM4 molecules represented a narrow band gap (Eg) and low excitation energy values. The AM1-AM4 and AM6 molecules have higher electron mobility. Comparing AM2 to the reference molecule reveals that AM2 has higher hole mobilities. Compared to the reference molecule, all compounds have excellent light harvesting efficiency values compared to AM1 and AM2. The natural transition orbital investigation showed that AM5 and AM6 had significant electronic transitions. The open-circuit voltage (Voc) values of the computed molecules were calculated by combining the designed acceptor molecules with PTB7-Th. In light of the findings, it is concluded that the designed molecules can be further developed for organic solar cells (OSCs) with superior photovoltaic abilities.

SUBMITTER: Rehman FU 

PROVIDER: S-EPMC10652832 | biostudies-literature | 2023 Nov

REPOSITORIES: biostudies-literature

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High-Efficiency and Low-Energy-Loss Organic Solar Cells Enabled by Tuning the End Group Modification of the Terthiophene-Based Acceptor Molecules to Enhance Photovoltaic Properties.

Rehman Faseh Ur FU   Hameed Shanza S   Khera Rasheed Ahmad RA   Shaban Mohamed M   Essid Manel M   Aloui Zouhaier Z   Al-Saeedi Sameerah I SI   Ibrahim Mahmoud A A MAA   Waqas Muhammad M  

ACS omega 20231101 45


In the current study, six nonfullerene small acceptor molecules were designed by end-group modification of terminal acceptors. Density functional theory calculations of all designed molecules were performed, and optoelectronic properties were computed by employing different functionals. Every constructed molecule has a significant bathochromic shift in the maximum absorption value (λ<sub>max</sub>) except <b>AM6</b>. <b>AM1</b>-<b>AM4</b> molecules represented a narrow band gap (<i>E</i><sub>g</  ...[more]

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