High-temperature endurable encapsulation material

V. Chidambaram, Ho Beng Yeung, C. Sing, Daniel Rhee Min Woo
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引用次数: 6

Abstract

The accomplishment of fully functional high-pressure high-temperature (HPHT) well is possible only, when the packaging and interconnections in the well logging equipments can survive at higher temperatures. Currently, there are numerous choices for substrate materials and interconnection materials. However, there are hardly any encapsulation materials that can endure at 300°C. Thus, the limiting factor for the evaluation and monitoring of HPHT wells is; the availability of high-temperature endurable encapsulation material. In this paper, the endurability of three prospective candidates for high-temperature encapsulation have been characterized and reported. The three prospective candidates are benzocyclobutene (BCB), ceramic filled cyanate ester and quartz filled cyanate ester. The high-temperature endurability has been evaluated in this work by high-temperature storage at 300°C up to 500 hours. Adhesion strength of these prospective candidates with the alumina ceramic substrate and the Si die was verified by room shear testing and hot shear testing. It has been determined that the quartz filled cyanate ester could comply with the minimum indispensable requirement for this application, when sandwiched between alumina ceramic substrates, despite the loss of strength during long-term thermal aging at 300°C. The material degradation has been studied in this work, using thermo-gravimetric analysis.
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耐高温封装材料
只有当测井设备中的封装和互连能够在更高的温度下工作时,才有可能完成功能齐全的高压高温井。目前,对于衬底材料和互连材料有许多选择。然而,几乎没有任何封装材料可以承受300°C的高温。因此,高温高压井评价与监测的限制因素是;可获得耐高温的封装材料。本文对三种候选高温封装材料的耐久性进行了表征和报道。三种候选材料分别是苯并环丁烯、陶瓷填充氰酸酯和石英填充氰酸酯。在这项工作中,通过在300°C高温储存长达500小时来评估高温耐久性。通过室内剪切测试和热剪切测试验证了这些候选材料与氧化铝陶瓷衬底和Si模具的粘附强度。已经确定,石英填充的氰酸酯可以满足这种应用的最低不可缺少的要求,当夹在氧化铝陶瓷衬底之间时,尽管在300°C的长期热老化过程中强度会损失。本文采用热重分析法对材料的降解进行了研究。
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