journal article·2026-02-18

Reconciling Ultrahigh-Temperature Capability and Chemical Degradation in Bismaleimide Diphenyldisulfide-Based Polymers and Composites

Ruiyong Yan, Yan Kou, Shikai Luo, Lin Zhou, Mao Chen

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Abstract

Despite their widespread application in automotive, maritime, and aerospace industries, conventional thermosets and their composites suffer from nonrecyclability. Current recyclable covalent adaptable networks offer a solution but are limited by poor heat resistance. Herein, we report a diphenyldisulfide-based polymer (BMS-DB) that overcomes this limitation. The BMS-DB polymers deliver an ultrahigh T g of ∼275 °C (high storage modulus ( E ′) of ∼410 MPa at 325 °C), robust mechanical properties, and rapid degradability. As a matrix for carbon fiber composites, it enables an unprecedented T g of ∼305 °C and nondestructive recycling. This combination of ultrahigh-temperature capability and closed-loop recyclability makes these materials ideal candidates for severe-service environments such as aerospace.
Source: openalex_inverted_index · Quality: baseline

Research context

OpenAlex topics: Polymer composites and self-healing · Covalent Organic Framework Applications · Synthesis and properties of polymers

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Affiliations

Institute of Chemical Materials

China Academy of Engineering Physics

State Key Laboratory of Environmental-friendly Energy Materials

Southwest University of Science and Technology

Funding

National Natural Science Foundation of China · China Academy of Engineering Physics

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