Employing a Two-Step Carbonylation and Condensation Approach to Expand the Scope of Hydroesterificative Polymerization

IF 2.9 3区 化学 Q2 CHEMISTRY, INORGANIC & NUCLEAR
Ryan J. Anderson, Janaya D. Sachs and Ian A. Tonks*, 
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引用次数: 0

Abstract

Hydroesterificative polymerization is an atom-economical method for the synthesis of polyesters from alkenols. The implementation of hydroesterificative polymerization has predominantly focused on a single substrate, 10-undecen-1-ol, due to the multitude of potential side reactions with other substrates that prevent access to high molar mass polymers via the step-growth mechanism. This report uses a two-step carbonylation and condensation strategy to synthesize AB and AABB condensation polyesters from alkenols, alkenyl esters, and dienes. A broad range of commercially available and biobased monomers were investigated for hydroesterification by methanol. Turnover frequency (TOF) studies revealed that hydroesterification by methanol is at least twice as fast as hydroesterificative polymerization and typically leads to higher overall yields. The carbonylated monomers can be isolated via column chromatography and polymerized through condensation polymerization. In all cases, moderate to high molar mass (20–45 kDa) polyesters were isolated and characterized.

Abstract Image

采用两步羰基化缩合法扩大氢酯化聚合的范围
氢酯化聚合是一种原子经济的由烯醇合成聚酯的方法。氢酯化聚合的实现主要集中在单一的底物,10-十一烯-1-醇上,因为与其他底物的大量潜在副反应阻碍了通过阶梯生长机制获得高摩尔质量聚合物。本报告采用两步羰基化缩合策略,由烯醇、烯基酯和二烯合成AB和AABB缩合聚酯。广泛的商业和生物基单体研究了甲醇加氢酯化。周转频率(TOF)研究表明,甲醇的氢酯化反应速度至少是氢酯化聚合的两倍,并且通常会导致更高的总收率。羰基化单体可以通过柱层析分离,并通过缩聚聚合进行聚合。在所有情况下,中高摩尔质量(20-45 kDa)的聚酯被分离和表征。
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来源期刊
Organometallics
Organometallics 化学-无机化学与核化学
CiteScore
5.60
自引率
7.10%
发文量
382
审稿时长
1.7 months
期刊介绍: Organometallics is the flagship journal of organometallic chemistry and records progress in one of the most active fields of science, bridging organic and inorganic chemistry. The journal publishes Articles, Communications, Reviews, and Tutorials (instructional overviews) that depict research on the synthesis, structure, bonding, chemical reactivity, and reaction mechanisms for a variety of applications, including catalyst design and catalytic processes; main-group, transition-metal, and lanthanide and actinide metal chemistry; synthetic aspects of polymer science and materials science; and bioorganometallic chemistry.
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