Self-Polymerization Reaction of Epoxidized Oleic Acid: Kinetic and Product Characterization

Dyah Retno Sawitri, P. Mulyono, R. Rochmadi, Arief Budiman
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Abstract

Epoxidized oleic acid can be transformed into vegetable oil-based polyesters through a self-polymerization reaction. This study aims to develop the kinetic model for the polymerization reaction between epoxide and carboxyl groups and the product characterization regarding its functional groups, molecular weight, and thermal stability. The polymerization reaction was carried out at the temperature of 120–180 °C for 2–6 h with the highest conversion of oxirane number up to 97%. Kinetic study showed one-step reaction model between oxirane and carboxylic group gives the activation energy value of 34.71 kJ/mol. Furthermore, the two simultaneous reaction model with further reaction between oxirane group and hydroxyl group also taken into account. The later provides a better agreement between the experimental data and the calculated conversion value. The activation energy values in the first and second steps are 38.61 and 26.00 kJ/mol, respectively. The product characterization showed that adding adipic acid did not significantly affect the polymer's molecular weight and thermal stability. The polydisperse characteristics of the poly(oleic acid) produced in this study enable poly(oleic acid) to be used as a lubricant, a polymer additive, or a precursor to produce polymers with higher molecular weights by taking advantage of the accessibility of OH groups. Copyright © 2023 by Authors, Published by BCREC Group. This is an open access article under the CC BY-SA License (https://creativecommons.org/licenses/by-sa/4.0). 
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环氧化油酸自聚合反应:动力学及产物表征
环氧化油酸可通过自聚合反应转化为植物油基聚酯。本研究旨在建立环氧化物与羧基聚合反应的动力学模型,并对产物的官能团、分子量和热稳定性进行表征。聚合反应在120 ~ 180℃的温度下进行,反应时间为2 ~ 6 h,环氧烷的转化率最高可达97%。动力学研究表明,氧环烷与羧基的一步反应模型得到的活化能为34.71 kJ/mol。此外,还考虑了氧烷基与羟基进一步反应的两种同时反应模型。后者在实验数据和计算转换值之间提供了更好的一致性。第一步和第二步的活化能分别为38.61和26.00 kJ/mol。产物表征表明,加入己二酸对聚合物的分子量和热稳定性没有显著影响。本研究中生产的聚油酸的多分散特性使聚油酸可以用作润滑剂、聚合物添加剂,或者利用羟基的可及性作为前驱体来生产具有更高分子量的聚合物。版权所有©2023作者,BCREC集团出版。这是一篇基于CC BY-SA许可(https://creativecommons.org/licenses/by-sa/4.0)的开放获取文章。
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