Reactivity Ratios of Biobased Dialkyl Itaconate Radical Polymerizations Derived from In-Line NMR Spectroscopy and Size-Exclusion Chromatography

Marco Drache, Brunette Audree Tameno Kouanwo, Jan Christoph Namyslo, Sacha Pérocheau Arnaud, Tobias Robert and Sabine Beuermann*, 
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Abstract

Itaconates available from renewable resources constitute a group of monomers that are used in several types of polymerizations. Their use in free-radical polymerizations (FRPs) is still limited due to the low propagation rate coefficients resulting in low polymerization rates and the occurrence of depropagation which is responsible for limited monomer conversion. Since FRP is considered very robust with few requirements concerning monomer purity, it is still interesting to investigate how itaconate FRP may become feasible. For this reason, copolymerizations of itaconates with other monomers well-suited for FRP are considered. In particular, copolymerization with acrylates appears to be interesting because the propagation rate of these monomers is high and depropagation is not operative at common polymerization temperatures. Copolymerizations of dibutyl and dicyclohexyl itaconate with butyl acrylate were performed to determine the copolymerization reactivity ratios required for tailoring copolymer composition. To limit the number of experiments, copolymerizations were carried out until high conversion and consumption of the individual monomers was obtained from 1H NMR spectroscopy and quantitative size-exclusion chromatography.

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生物基衣康酸二烷基自由基聚合的反应性比来源于在线核磁共振光谱和尺寸排除色谱
从可再生资源中获得的itacon酸酯构成了一组单体,用于几种类型的聚合。它们在自由基聚合(FRPs)中的应用仍然受到限制,因为低增殖速率系数导致低聚合速率和发生脱增殖,这是有限的单体转化的原因。由于FRP被认为是非常坚固的,对单体纯度的要求很少,因此研究如何使其变得可行仍然很有趣。出于这个原因,考虑与其他适合FRP的单体共聚。特别是,与丙烯酸酯的共聚似乎很有趣,因为这些单体的繁殖速率很高,而在普通聚合温度下不进行反繁殖。二丁基和衣康酸二环己基与丙烯酸丁酯进行了共聚,以确定共聚反应活性比,以确定共聚物组成所需的共聚反应活性比。为了限制实验次数,进行共聚,直到通过1H NMR波谱和定量尺寸排除色谱获得单个单体的高转化率和消耗。
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Issue Editorial Masthead Issue Publication Information Reactivity Ratios of Biobased Dialkyl Itaconate Radical Polymerizations Derived from In-Line NMR Spectroscopy and Size-Exclusion Chromatography. Reactivity Ratios of Biobased Dialkyl Itaconate Radical Polymerizations Derived from In-Line NMR Spectroscopy and Size-Exclusion Chromatography Photoinduced Rayleigh Light Scattering by Hyperbranched Poly(phenylene sulfide) Solutions: A Model for a Light Scattering Switch.
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