Continuous Flow Synthesis of Functional Isocyanate-Free Poly(oxazolidone)s by Step-Growth Polymerization

IF 5.1 Q1 POLYMER SCIENCE ACS Macro Letters Pub Date : 2024-05-08 DOI:10.1021/acsmacrolett.4c00203
Fabiana Siragusa, Lionel Crane, Pierre Stiernet, Thomas Habets, Bruno Grignard, Jean-Christophe M. Monbaliu* and Christophe Detrembleur*, 
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Abstract

Flow chemistry presents many advantages over batch processes for the fast and continuous production of polymers under more robust, safer, and easily scalable conditions. Although largely exploited for chain-growth polymerizations, it has rarely been applied to step-growth polymerizations (SGP) due to their inherent limitations. Here, we report the facile and fast preparation of an emerging class of nonisocyanate polyurethanes, i.e., CO2-based poly(oxazolidone)s, by SGP in continuous flow reactors. Importantly, we also demonstrate that functional poly(oxazolidone)s are easily prepared by telescoping a flow module where SGP occurs with reagents able to simultaneously promote two polymer derivatizations in a second module, i.e., dehydration followed by cationic thiol–ene to yield poly(N,S-acetal oxazolidone)s. The functional polymer is produced at a high rate and functionalization degree, without requiring the isolation of any intermediates. This work demonstrates the enormous potential of flow technology for the facile and fast continuous production of functional polymers by SGP.

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通过阶跃生长聚合法连续流合成不含异氰酸酯的功能性聚(恶唑烷酮)。
与间歇式工艺相比,流动化学工艺具有许多优势,可以在更稳健、更安全、更易于扩展的条件下快速连续地生产聚合物。尽管流化学在链增长聚合中得到了广泛应用,但由于其固有的局限性,很少被应用于阶跃增长聚合(SGP)。在此,我们报告了在连续流反应器中通过 SGP 简单快速地制备一类新兴的非异氰酸酯聚氨酯,即基于 CO2 的聚(恶唑烷酮)。重要的是,我们还证明了功能性聚(恶唑烷酮)可通过伸缩流动模块轻松制备,在该模块中,SGP 与试剂可在第二个模块中同时促进两种聚合物衍生,即先脱水再用阳离子巯基烯生成聚(N,S-缩醛恶唑烷酮)。这种功能聚合物的生产率和功能化程度都很高,而且不需要分离任何中间体。这项工作证明了流动技术在利用 SGP 方便、快速地连续生产功能聚合物方面的巨大潜力。
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来源期刊
CiteScore
10.40
自引率
3.40%
发文量
209
审稿时长
1 months
期刊介绍: ACS Macro Letters publishes research in all areas of contemporary soft matter science in which macromolecules play a key role, including nanotechnology, self-assembly, supramolecular chemistry, biomaterials, energy generation and storage, and renewable/sustainable materials. Submissions to ACS Macro Letters should justify clearly the rapid disclosure of the key elements of the study. The scope of the journal includes high-impact research of broad interest in all areas of polymer science and engineering, including cross-disciplinary research that interfaces with polymer science. With the launch of ACS Macro Letters, all Communications that were formerly published in Macromolecules and Biomacromolecules will be published as Letters in ACS Macro Letters.
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