PEER-REVIEWED PUBLICATION

2025

Soft and Stretchable Thienopyrroledione-Based Polymers via Direct Arylation

Lin A, Guio L, et al.

Advanced Electronic Materials

University of Toronto, University of Washington, Stanford University, University of Southern Mississippi, Vector Institute for Artificial Intelligence, Okinawa Institute of Science and Technology Graduate University

RESEARCH SUMMARY
This study develops a family of π-conjugated copolymers—poly(indacenodithiophene-co-thienopyrroledione) (p(IDTC16‑TPDC8)) and poly(indacenodithienothiophene-co-thienopyrroledione) (p(IDTTC16‑TPDC8))—designed for deformable and soft organic electronics. By tuning polymer chain length via direct arylation polymerization, the authors achieved polymers with low elastic modulus (E ≈ 32 MPa) and high stretchability (crack onset strain > 100 %). These materials outperform prior soft semiconducting polymers in mechanical compliance while maintaining high charge mobility (~7.4×10⁻³ cm² V⁻¹ s⁻¹). The study highlights how molecular weight and conjugation control balance softness and charge transport for bio-integrated electronic devices.

CELLSCALE INSTRUMENT USED

UniVert

The elastic modulus of the PDMS substrates used for film-on-elastomer tensile and buckling tests was measured using a CellScale UniVert S mechanical testing system equipped with a 4.5 N load cell. The UniVert S determined PDMS substrate stiffness (0.65 MPa for 20:1 PDMS, 2.2 MPa for 10:1 PDMS) by linear fitting of the stress–strain curve, enabling accurate normalization of thin-film mechanical data for conjugated polymer modulus extraction.
AUTHORS

Angela Lin; Lorenzo Guio; Garrett LeCroy; Stanley Lo; Adnan Sharif; Yunfei Wang; Alberto Salleo; Xiaodan Gu; Christine K. Luscombe; Helen Tran.

PUBLICATION DETAILS
JOURNAL

Advanced Electronic Materials

YEAR

2025

INSTITUTIONS

University of Toronto, University of Washington, Stanford University, University of Southern Mississippi, Vector Institute for Artificial Intelligence, Okinawa Institute of Science and Technology Graduate University

COUNTRIES

Canada, Japan, United States

INSTRUMENT USED

UniVert

TESTING METHODS

Tensile Testing

RESEARCH APPLICATIONS

Electroactive and Photothermal PolymersMaterial Fatigue and DurabilityPolymers and Elastomers TestingSoft Robotics MaterialsWearable Bioelectronics

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