Pioneering the Leading-Edge Adhesion Enhancement System for the Future of Package Substrates Bonding

GSM演进的增强数据速率 材料科学 粘附 成套系统 计算机科学 纳米技术 工程物理 光电子学 复合材料 工程类 电信 炸薯条
作者
Thomas Thomas,Christopher Andreas Seidemann,T. Huelsmann,Valentina Belova,Martin Thoms,Christian Noethlich,Fabian Michalik,Josef Gaida,Stefanie Ackermann,Yuan Zou,Andry Liong,Frank Bruening
标识
DOI:10.1109/impact63555.2024.10818892
摘要

In microelectronic assembly, the formation of a robust and reliable bond between copper conductor tracks and dielectrics is a must. This necessity becomes even more pronounced in the area of high-density interconnects, where the demand is greater than ever for fine line and space circuitry. The traditional surface roughening processes, that have been relied upon to improve the adhesion of dielectric materials to copper have become impractical. The excessive etching of the conductor tracks has a detrimental effect on their characteristics and signal integrity. With the current challenges in the packaging substrate industry, a novel approach to adhesion improvement is essential. The new process must be independent of surface roughening or etching, have excellent lamination material compatibility and be cost-effective. In this report, a new type of organo-silane adhesion promoter is designed to chemically react with Cu and dielectric materials. It is successfully synthesized in-house with a focus on route optimization, reproducibility, and scale-up. The new promoter improves the initial adhesion strength of ultra-smooth Cu to insulating build up films and prevent loss of adhesion when the substrates are exposed to extremely high temperatures and or/ humid external environments. In addition, the promoter significantly reduces wedge void defects on blind micro vias (BMV) by strengthening the Cu-dielectric interface of patterned substrates against aggressive desmear conditions. High corrosion resistance demonstrated by electrochemical tests. A comparison with a low etch adhesion promoter (LEAP) system will show that the roughness is no longer necessary to ensure a reliable bonding. The newly developed non-roughened solution enables state-of-the-art IC substrate packaging. It also meets the technical specifications of major microprocessor manufacturers.
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