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Synergistic charge-transfer dynamics of novel pyridoquinazolindone-containing triphenylamine-based push–pull chromophores: from structural optimization to performance metrics in photovoltaic solar cells and static, dynamic, solvent-dependent nonlinear optical response applications

Sehar Nadeem, Abida Anwar, Muhammad Usman Khan, Abrar U. Hassan, Khalid Abdullah Alrashidi

2024RSC Advances18 citationsDOIOpen Access PDF

Abstract

) of 0.191. In addition to these analyses, we performed topologic studies, such as TDM, ELF, NCI, MEP, LOL, and electron-hole overlap plots to better understand both intra and intermolecular interactions. Based on these results, it is clear that modifying longer π-linker groups in A-D-π-A conjugated systems benefits the optoelectronic characteristics and NLO responses for organic PV devices.

Topics & Concepts

Photovoltaic systemTriphenylamineChromophoreNonlinear opticalMaterials scienceOptoelectronicsNonlinear systemPhotonicsCharge (physics)Nonlinear opticsEngineering physicsChemistryPhysicsEngineeringElectrical engineeringPhotochemistryQuantum mechanicsNonlinear Optical Materials ResearchNonlinear Optical Materials StudiesPorphyrin and Phthalocyanine Chemistry
Synergistic charge-transfer dynamics of novel pyridoquinazolindone-containing triphenylamine-based push–pull chromophores: from structural optimization to performance metrics in photovoltaic solar cells and static, dynamic, solvent-dependent nonlinear optical response applications | Litcius