Review on the Synthesis, Recyclability, Degradability, Self-Healability and Potential Applications of Reversible Imine Bond Containing Biobased Epoxy Thermosets

Reactions Pub Date : 2023-12-01 DOI:10.3390/reactions4040043
Jabed Hossen Emon, Muhammad Abdur Rashid, Md. Ariful Islam, Md. Nabiul Hasan, M. K. Patoary
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Abstract

Epoxy thermosets need to be designed for simple recycling and biomass resource utilization in order to be fully sustainable building materials. The development of covalent adaptive networks (CANs) using adaptive covalent chemistry (ACC) may be helpful in this regard. Several reversible covalent bonds are incorporated into the epoxy polymer to overcome the challenge of reprocessability or recyclability, degradability and self-healability. The imine bond, also referred to as the Schiff base, is one of the reversible covalent bonds that can participate in both associative and dissociative reactions. This opens up possibilities for mechanical and chemical recycling as well as self-healing. This review summarises the progress related to the synthesis and mechanical and thermal properties of epoxy thermosets based on reversible imine bonds derived from different sustainable resources over the past few decades. The feedstocks, physical and thermal properties, recycling conditions, degradability and self-healability of the biomass epoxy thermosets are addressed along with the main obstacles, prospective improvements and potential applications.
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含可逆亚胺键的生物基环氧热固性塑料的合成、可回收性、降解性、自愈性和潜在应用综述
为了成为完全可持续的建筑材料,环氧热固性材料需要设计成易于回收和生物质资源利用的材料。利用自适应共价化学(ACC)发展共价自适应网络(can)可能有助于这方面的研究。几个可逆共价键被纳入到环氧聚合物中,以克服可再加工性或可回收性、可降解性和自愈性的挑战。亚胺键,又称希夫碱,是一种可逆共价键,既能参与结合反应,也能参与解离反应。这为机械和化学回收以及自我修复提供了可能性。本文综述了近几十年来基于可逆转亚胺键的环氧热固性材料的合成及其力学和热性能的研究进展。讨论了生物质环氧热固性材料的原料、物理和热性能、回收条件、可降解性和自愈性,以及主要障碍、前景改进和潜在应用。
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