Combining Fullerenes and Zwitterions in Non‐Conjugated Polymer Interlayers to Raise Solar Cell Efficiency

Polymer zwitterions were synthesized by nucleophilic ring‐opening of 3,3′‐(but‐2‐ene‐1,4‐diyl)bis(1,2‐oxathiolane 2,2‐dioxide) (a bis‐sultone) with functional perylene diimide (PDI) or fullerene monomers. Integration of these polymers into solar cell devices as cathode interlayers boosted efficienci...

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Veröffentlicht in:Angewandte Chemie 2018-07, Vol.130 (31), p.9823-9826
Hauptverfasser: Liu, Yao, Sheri, Madhu, Cole, Marcus D., Emrick, Todd, Russell, Thomas P.
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Sheri, Madhu
Cole, Marcus D.
Emrick, Todd
Russell, Thomas P.
description Polymer zwitterions were synthesized by nucleophilic ring‐opening of 3,3′‐(but‐2‐ene‐1,4‐diyl)bis(1,2‐oxathiolane 2,2‐dioxide) (a bis‐sultone) with functional perylene diimide (PDI) or fullerene monomers. Integration of these polymers into solar cell devices as cathode interlayers boosted efficiencies of fullerene‐based organic photovoltaics (OPVs) from 2.75 % to 10.74 %, and of non‐fullerene‐based OPVs from 4.25 % to 10.10 %, demonstrating the versatility of these interlayer materials in OPVs. The fullerene‐containing polymer zwitterion (C60‐PZ) showed a higher interfacial dipole (Δ) value and electron mobility than its PDI counterpart (PDI‐PZ), affording solar cells with high efficiency. The power of PDI‐PZ and C60‐PZ to improve electron injection and extraction processes when positioned between metal electrodes and organic semiconductors highlights their promise to overcome energy barriers at the hard‐soft materials interface of organic electronics. Elektronentransport‐Komponenten wurden an einem zwitterionischen Polymerrückgrat angebracht, und die resultierenden Polymere wurden als Zwischenschichten in organischen Photovoltaik‐Einheiten mit oder ohne Fullerengruppen eingesetzt. Die Ergebnisse dieser Studie können für das Design hochleistungsfähiger Grenzflächenmaterialien und Funktionseinheiten von Nutzen sein.
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Integration of these polymers into solar cell devices as cathode interlayers boosted efficiencies of fullerene‐based organic photovoltaics (OPVs) from 2.75 % to 10.74 %, and of non‐fullerene‐based OPVs from 4.25 % to 10.10 %, demonstrating the versatility of these interlayer materials in OPVs. The fullerene‐containing polymer zwitterion (C60‐PZ) showed a higher interfacial dipole (Δ) value and electron mobility than its PDI counterpart (PDI‐PZ), affording solar cells with high efficiency. The power of PDI‐PZ and C60‐PZ to improve electron injection and extraction processes when positioned between metal electrodes and organic semiconductors highlights their promise to overcome energy barriers at the hard‐soft materials interface of organic electronics. Elektronentransport‐Komponenten wurden an einem zwitterionischen Polymerrückgrat angebracht, und die resultierenden Polymere wurden als Zwischenschichten in organischen Photovoltaik‐Einheiten mit oder ohne Fullerengruppen eingesetzt. 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Integration of these polymers into solar cell devices as cathode interlayers boosted efficiencies of fullerene‐based organic photovoltaics (OPVs) from 2.75 % to 10.74 %, and of non‐fullerene‐based OPVs from 4.25 % to 10.10 %, demonstrating the versatility of these interlayer materials in OPVs. The fullerene‐containing polymer zwitterion (C60‐PZ) showed a higher interfacial dipole (Δ) value and electron mobility than its PDI counterpart (PDI‐PZ), affording solar cells with high efficiency. The power of PDI‐PZ and C60‐PZ to improve electron injection and extraction processes when positioned between metal electrodes and organic semiconductors highlights their promise to overcome energy barriers at the hard‐soft materials interface of organic electronics. Elektronentransport‐Komponenten wurden an einem zwitterionischen Polymerrückgrat angebracht, und die resultierenden Polymere wurden als Zwischenschichten in organischen Photovoltaik‐Einheiten mit oder ohne Fullerengruppen eingesetzt. 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source Wiley Online Library Journals Frontfile Complete
subjects Buckminsterfullerene
Chemical synthesis
Chemistry
Diimide
Electron mobility
Electronics industry
Fullerenes
Grenzflächenmodifizierung
Interlayers
Ladungstransport
Monomers
Organic semiconductors
Organische Halbleiter
Organische Solarzellen
Photovoltaic cells
Photovoltaics
Polymere Zwitterionen
Polymers
Power efficiency
Solar cells
Solar power
Zwitterions
title Combining Fullerenes and Zwitterions in Non‐Conjugated Polymer Interlayers to Raise Solar Cell Efficiency
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