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January 18, 2026Macromolecular Materials and Engineering0 citationsOpen Access

Fluorescent Polyethers Incorporating Perylene Diimide Derivatives: Investigating a Strategy of Limiting Aggregation

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KAKonstantinos C. AndrikopoulosUniversity of PatrasSAStefania AivaliUniversité de MontréalAAAikaterini K. AndreopoulouUniversity of Patras

Key Points

  • This research aims to suppress the aggregation of perylene diimide derivatives in polymeric structures while maintaining their desirable properties.
  • Incorporated perylene diimide derivatives into poly(arylene ethers) as main chain components.
  • Utilized two chromophores: diacetoxystyrylcarbazole and diacetoxystyryl anthracene.
  • Adjusted percentages of PDI derivatives to enhance emission and reduce π–π stacking.
  • Emission from the perylene core component was successfully observed.
  • The strategy effectively limited PDI aggregation and quenching.
  • Two chromophore combinations facilitated potential white light-emitting copolymers.

Abstract

ABSTRACT Incorporating perylene diimide (PDI) into polymeric structures is a promising strategy to suppress its aggregation‐caused quenching. However, achieving this while maintaining desirable material properties remains a challenge. This work aims to the realization of polymeric fluorophores via the incorporation of perylene diimide (PDI) derivatives onto the main chain of poly(arylene ethers) containing different organic chromophores as comonomers. The potentiality of PDI‐based polymers for the emitting layer of organic light‐emitting diodes is studied herein. Different percentages of the perylene diimide derivative were used to ensure emission from the PDI core components, while minimizing their strong π–π stacking tendency and thus their emission quenching. Two different chromophore combinations were employed with the potential to obtain white light‐emitting copolymers. The first involved the use of two fluorophores, namely, a diacetoxystyrylcarbazole derivative along with the perylene moiety. The latter involved the use of a diacetoxystyryl anthracene moiety to facilitate better energy transfer to the perylene moiety. In both cases, the emission of the perylene core component was observed, providing a synthetic strategy to suppress the aggregation tendency of PDI.

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Cite This Study

Andrikopoulos et al. (2026) studied this question.

synapsesocial.com/papers/696c7817eb60fb80d13964a4https://doi.org/10.1002/mame.202500268
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