Effects of Dielectric Curing Temperature on the Interfacial Reliability of Cu/Ti/PBO for FOWLP Applications

IF 2.1 4区 材料科学 Q3 MATERIALS SCIENCE, MULTIDISCIPLINARY Electronic Materials Letters Pub Date : 2024-02-19 DOI:10.1007/s13391-024-00485-0
Gahui Kim, Kirak Son, Young-Cheon Kim, Young-Bae Park
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Abstract

In this study, the effect of curing temperatures of low-temperature curable polybenzoxazole (PBO) dielectrics on the interfacial adhesion energies between the Cu redistribution layer and PBO dielectric used in advanced fan-out packaging was systematically investigated using a four-point bending test. The results revealed that the interfacial adhesion energy increased when the PBO curing temperature increased from 175 to 200 °C, whereas it decreased when the curing temperature increased from 200 to 225 °C. The increase in the interfacial adhesion energy with an increase in the PBO curing temperature from 175 to 200 °C is attributed to the polymerization of PBO. However, the decrease in the interfacial adhesion energy as the curing temperature increases to 225 °C results from thermal stress.

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介质固化温度对用于 FOWLP 应用的 Cu/Ti/PBO 的界面可靠性的影响
摘要 本研究采用四点弯曲试验系统地研究了低温固化聚苯并恶唑(PBO)电介质的固化温度对先进扇出包装中使用的铜再分布层和 PBO 电介质之间的界面粘附能的影响。结果表明,当 PBO 固化温度从 175 ℃ 升至 200 ℃ 时,界面粘附能增加,而当固化温度从 200 ℃ 升至 225 ℃ 时,界面粘附能降低。界面粘附能随着 PBO 固化温度从 175 ℃ 升至 200 ℃ 而增加的原因是 PBO 的聚合作用。然而,当固化温度升高到 225 ℃ 时,界面粘附能降低是由于热应力造成的。 图表摘要
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来源期刊
Electronic Materials Letters
Electronic Materials Letters 工程技术-材料科学:综合
CiteScore
4.70
自引率
20.80%
发文量
52
审稿时长
2.3 months
期刊介绍: Electronic Materials Letters is an official journal of the Korean Institute of Metals and Materials. It is a peer-reviewed international journal publishing print and online version. It covers all disciplines of research and technology in electronic materials. Emphasis is placed on science, engineering and applications of advanced materials, including electronic, magnetic, optical, organic, electrochemical, mechanical, and nanoscale materials. The aspects of synthesis and processing include thin films, nanostructures, self assembly, and bulk, all related to thermodynamics, kinetics and/or modeling.
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