Efficient Enhancement of Electron Transport and Collection Capability in PTB7:PC71BM‐based Solar Cells Enabled by Sulforhodamine Cathode Interlayers

Development of low‐cost water‐/alcohol‐soluble interfacial materials is a crucial issue to promote the commercialization of polymer solar cells (PSCs). Herein, two derivatives of low‐cost rhodamine, called sulforhodamine 101 (SR101) and sulforhodamine B (SRB), are applied as cathode interfacial laye...

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Published inChemistry, an Asian journal Vol. 14; no. 9; pp. 1472 - 1476
Main Authors Song, Wei, Li, Wang, Peng, Ruixiang, Fanady, Billy, Huang, Jiaming, Zhu, Wenqing, Xie, Lingchao, Lei, Tao, Ge, Ziyi
Format Journal Article
LanguageEnglish
Published Weinheim Wiley Subscription Services, Inc 02.05.2019
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Abstract Development of low‐cost water‐/alcohol‐soluble interfacial materials is a crucial issue to promote the commercialization of polymer solar cells (PSCs). Herein, two derivatives of low‐cost rhodamine, called sulforhodamine 101 (SR101) and sulforhodamine B (SRB), are applied as cathode interfacial layers (CILs) to effectively improve the charge‐carrier transportation and collection, reduce the work function (WF) of Al counter electrode, and decrease the series resistance and charge recombination in the PSCs. As a result, SR101‐based devices show excellent performance with the highest power conversion efficiency (PCE) of 9.10 %, superior to that of both the control devices with MeOH/Al and Ca/Al. Notably, sulforhodamine is commercially available with low cost and great solution‐processability. This work demonstrates that sulforhodamine has a great potential as a CIL material,which is suitable for the large‐area fabrication process and commercialization of highly efficient PSCs. Polymer Solar Cells 101: Highly efficient polymer solar cells were achieved by employing sulforhodamine as a cathode interfacial layer. The conjugated functional groups with positive and negative charges of SR101 can provide good interfacial modification abilities in electron transport and collection. The results demonstrate that the best device with PTB7:PC71BM show an inspiring PCE of 9.10 %, which is superior to that of the control devices.
AbstractList Development of low‐cost water‐/alcohol‐soluble interfacial materials is a crucial issue to promote the commercialization of polymer solar cells (PSCs). Herein, two derivatives of low‐cost rhodamine, called sulforhodamine 101 (SR101) and sulforhodamine B (SRB), are applied as cathode interfacial layers (CILs) to effectively improve the charge‐carrier transportation and collection, reduce the work function (WF) of Al counter electrode, and decrease the series resistance and charge recombination in the PSCs. As a result, SR101‐based devices show excellent performance with the highest power conversion efficiency (PCE) of 9.10 %, superior to that of both the control devices with MeOH/Al and Ca/Al. Notably, sulforhodamine is commercially available with low cost and great solution‐processability. This work demonstrates that sulforhodamine has a great potential as a CIL material,which is suitable for the large‐area fabrication process and commercialization of highly efficient PSCs.
Development of low‐cost water‐/alcohol‐soluble interfacial materials is a crucial issue to promote the commercialization of polymer solar cells (PSCs). Herein, two derivatives of low‐cost rhodamine, called sulforhodamine 101 (SR101) and sulforhodamine B (SRB), are applied as cathode interfacial layers (CILs) to effectively improve the charge‐carrier transportation and collection, reduce the work function (WF) of Al counter electrode, and decrease the series resistance and charge recombination in the PSCs. As a result, SR101‐based devices show excellent performance with the highest power conversion efficiency (PCE) of 9.10 %, superior to that of both the control devices with MeOH/Al and Ca/Al. Notably, sulforhodamine is commercially available with low cost and great solution‐processability. This work demonstrates that sulforhodamine has a great potential as a CIL material,which is suitable for the large‐area fabrication process and commercialization of highly efficient PSCs. Polymer Solar Cells 101: Highly efficient polymer solar cells were achieved by employing sulforhodamine as a cathode interfacial layer. The conjugated functional groups with positive and negative charges of SR101 can provide good interfacial modification abilities in electron transport and collection. The results demonstrate that the best device with PTB7:PC71BM show an inspiring PCE of 9.10 %, which is superior to that of the control devices.
Author Xie, Lingchao
Huang, Jiaming
Zhu, Wenqing
Lei, Tao
Ge, Ziyi
Song, Wei
Li, Wang
Peng, Ruixiang
Fanady, Billy
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Snippet Development of low‐cost water‐/alcohol‐soluble interfacial materials is a crucial issue to promote the commercialization of polymer solar cells (PSCs). Herein,...
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SubjectTerms cathode interfacial layer
Cathodes
charge transport
Chemistry
Collection
Commercialization
Current carriers
Electron transport
Energy conversion efficiency
Interlayers
Photovoltaic cells
polymer solar cells
Rhodamine
Solar cells
sulforhodamine
Work functions
Title Efficient Enhancement of Electron Transport and Collection Capability in PTB7:PC71BM‐based Solar Cells Enabled by Sulforhodamine Cathode Interlayers
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