创新环氧树脂配方

Khawlah Alanqari, A. Al-Yami, V. Wagle, Mohammed Al-Jubran
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引用次数: 2

摘要

与传统水泥相比,聚合物树脂体系具有许多优点。由于树脂不含固体,因此可用于低注入能力区域,如常规水泥无法泵送的狭窄裂缝。为了确保树脂系统在现场的成功应用,必须检查井下温度。本文的目的是介绍一种高温树脂体系与传统树脂体系的比较,评价环氧树脂配方在高温下的稳定性,并确定成功应用的最佳温度。尽管聚合物树脂有许多优点,但它们也有一些限制,这些限制会影响它们的性能和成功。树脂的一个重要限制是温度敏感性。温度影响树脂与固化剂的反应速度。因此,根据井下条件设计聚合物树脂非常重要。当固化温度接近玻璃化转变温度时,固化树脂的力学性能受到影响。本研究中所研究的树脂配方#1已在现场用于不同的应用。然而,由于温度限制,所有应用都在低于225°F的温度下进行。本文的目的是研究新的树脂配方及其适用于温度远高于225°F的深层截面的适用性,在某些应用中达到290°F以上。树脂配方通过使用胺固化剂进行聚合固化以进一步改善性能。然后通过DSC, TGA和SEM实验对最终固化的聚合物进行分析。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Innovative Epoxy Resin Formulation
Polymer resin systems have many advantages over conventional cement. Since resins are solids free, they can be used in low injectivity zones such as narrow fractures where conventional cement cannot be pumped. In order to ensure successful field applications of resin systems, downhole temperature must be checked. The objective of this paper is to introduce a high temprarure resin system compared to conventional ones, evaluate the stability of epoxy resin formulation at high temperatures and identify the optimum temperature for successful application. Despite the many advantages of polymer resins, they have few limitations that can affect their performance and the success. One important limitation of resins is temperature sensitivity. Temperature affects the speed of the reaction of the resin with the curing agent. Therefore, it is important to design the polymer resin according to downhole conditions. As curing temperature approach glass transition temperature, the mechanical properties of the cured resin are compromised. Resin formulation #1 investigated in this study was used in the field for different applications. However, all the application were performed in tempratures lower than 225 °F due to temperature limitation. The objective of this paper is to investigate new resin formulation and its suitability to be applied in deeper section where temperature is way above 225 °F reaching in some application to more than 290 °F. The resin formulation was cured through polymerization process using an amine curing agent to improve properties even further. The final cured polymer was then analyzed through DSC, TGA, and SEM experiments.
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