电子封装用铜/金刚石复合材料界面改性研究进展

IF 2.9 4区 工程技术 Q3 CHEMISTRY, PHYSICAL
Zhihua Hu, Bowen Zhang, Hongmei Yu, Yan Lei, Haiyan Xiong, Binghua Jiang, Deping Chen
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引用次数: 0

摘要

铜/金刚石复合材料由于其可调节的输运特性、高导热性和可定制的热膨胀系数,在包括微电子、武器、动力电池和航空航天在内的各个领域显示出巨大的潜力。然而,界面间隙和弱结合严重阻碍了高导热铜/金刚石复合材料的应用。综述了铜/金刚石复合材料界面改性的制备方法及研究进展。揭示了通过基体合金化或金刚石表面金属化引入碳化物形成元素(如Zr、Cr、Ti)可显著改善固液润湿性(使接触角降低到90°以下),并通过化学反应或原子扩散增强界面键合。这些发现对于增强铜和金刚石之间的界面结合至关重要,从而提高复合材料的导热性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Research Progress of Interfacial Modification of Copper/Diamond Composites for Electronic Packaging

Research Progress of Interfacial Modification of Copper/Diamond Composites for Electronic Packaging

Copper/diamond composites exhibit significant potential in various fields, including microelectronics, weaponry, power batteries and aerospace, owing to their adjustable transport properties, high thermal conductivity (TC), and customizable coefficients of thermal expansion. However, interface gaps and weak bonding have significantly impeded the application of copper/diamond composites with high thermal conductivity. This paper summarizes the preparation methods and research advancements in the interfacial modification of copper/diamond composites. Revealing that the introduction of carbide-forming elements (e.g., Zr, Cr, Ti) via matrix alloying or diamond surface metallization significantly improves solid–liquid wettability (reducing contact angles below 90°) and enhances interfacial bonding through chemical reaction or atomic diffusion. These insights are crucial for enhancing the interfacial bonding between copper and diamond, thereby improving the thermal conductivity of the composites.

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来源期刊
CiteScore
4.10
自引率
9.10%
发文量
179
审稿时长
5 months
期刊介绍: International Journal of Thermophysics serves as an international medium for the publication of papers in thermophysics, assisting both generators and users of thermophysical properties data. This distinguished journal publishes both experimental and theoretical papers on thermophysical properties of matter in the liquid, gaseous, and solid states (including soft matter, biofluids, and nano- and bio-materials), on instrumentation and techniques leading to their measurement, and on computer studies of model and related systems. Studies in all ranges of temperature, pressure, wavelength, and other relevant variables are included.
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