4.8 Article

Low-Defect, High Molecular Weight Indacenodithiophene (IDT) Polymers Via a C-H Activation: Evaluation of a Simpler and Greener Approach to Organic Electronic Materials

Journal

ACS MATERIALS LETTERS
Volume 3, Issue 10, Pages 1503-1512

Publisher

AMER CHEMICAL SOC
DOI: 10.1021/acsmaterialslett.1c00478

Keywords

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Funding

  1. KAUST
  2. Office of Sponsored Research (OSR) [OSR-2018-CRG/CCF-3079, OSR2019-CRG8-4086, OSR-2018-CRG7-3749]
  3. ERC [610115]
  4. European Union [952911, 862484]
  5. University of Warwick
  6. Engineering and Physical Sciences Research Council (EPSRC) [EP/L015307/1, EP/T026219/1]
  7. EU Chancellor's Scholarship by the University of Warwick
  8. Office of Naval Research [N00014-20-1-2129]
  9. EPSRC [EP/T026219/1] Funding Source: UKRI

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The study evaluated the application of direct (hetero)arylation polymerization methods in the synthesis of conjugated polymers, demonstrating the production of highly regular and pure polymers. This method is simpler than other cross-coupling polymerization methods but performs comparably in organic thin-film transistors.
The development, optimization, and assessment of new methods for the preparation of conjugated materials is key to the continued progress of organic electronics. Direct C-H activation methods have emerged and developed over the last 10 years to become an invaluable synthetic tool for the preparation of conjugated polymers for both redox-active and solid-state applications. Here, we evaluate direct (hetero)arylation polymerization (DHAP) methods for the synthesis of indaceno[1,2-b:5,6-b']dithiophene-based polymers. We demonstrate, using a range of techniques, including direct visualization of individual polymer chains via high-resolution scanning tunneling microscopy, that DHAP can produce polymers with a high degree of regularity and purity that subsequently perform in organic thin-film transistors comparably to those made by other cross-coupling polymerizations that require increased synthetic complexity. Ultimately, this work results in an improved atom economy by reducing the number of synthetic steps to access high-performance molecular and polymeric materials.

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