From System to Package to Interconnect: An Artificial Intelligence Powered 3D X-ray Imaging Solution for Semiconductor Package Structural Analysis and Correlative Microscopic Failure Analysis

A. Gu, M. Terada, H. Stegmann, Thomas Rodgers, C. Fu, Yanjing Yang
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引用次数: 2

Abstract

Non-destructive 3D X-ray microscopy (XRM) has played a crucial role in fueling the advances of IC package development and failure analysis [1]-[2]. Over the past decade, the industry has increasingly focused on packaging innovations to improve device performance. The emergence of numerous new 2.5D, 3D and recent heterogenous integration packages challenges the existing X-ray imaging and analysis techniques because IC interconnects are more densely packed in larger and thicker packages. It takes several hours or longer for a 3D X-ray scanner to acquire high resolution and quality images of fine-pitch interconnects and fault regions. In this report, we will introduce a deep learning high-resolution reconstruction (DLHRR) method through the implementation of trained neutral networks capable of improving scan speed by a factor of four. To demonstrate the effectiveness of this new method applied to the packaging hierarchy, an intact smartphone, several component modules, and embedded interconnectors will be imaged and reconstructed with the DLHRR method. With the improved efficiency of the AI powered X-ray imaging technique, a correlated fs-laser/FIB-SEM workflow followed to precisely target and analyze the deeply buried defects, which has been difficult, if not impossible, for conventional package FA techniques. We will discuss the DLHRR method and applications in two following workflows: X-ray imaging workflow for package structural analysis, and correlative X-ray and fs-laser/FIB-SEM workflow for package failure analysis.
从系统到封装再到互连:用于半导体封装结构分析和相关微观失效分析的人工智能驱动3D x射线成像解决方案
非破坏性3D x射线显微镜(XRM)在推动IC封装开发和失效分析方面发挥了至关重要的作用[1]-[2]。在过去的十年中,该行业越来越关注封装创新,以提高设备性能。许多新的2.5D、3D和最近的异质集成封装的出现,挑战了现有的x射线成像和分析技术,因为IC互连在更大、更厚的封装中更加密集。三维x射线扫描仪需要几个小时或更长时间才能获得细间距互连和断层区域的高分辨率和高质量图像。在本报告中,我们将介绍一种深度学习高分辨率重建(DLHRR)方法,通过实施训练有素的中性网络,能够将扫描速度提高四倍。为了证明这种新方法应用于封装层次结构的有效性,将使用DLHRR方法对完整的智能手机、几个组件模块和嵌入式互连器进行成像和重构。随着人工智能驱动的x射线成像技术效率的提高,相关的fs-laser/FIB-SEM工作流程遵循精确定位和分析深埋缺陷,这对于传统的封装FA技术来说是困难的,如果不是不可能的话。我们将讨论DLHRR方法及其在以下两个工作流程中的应用:用于封装结构分析的x射线成像工作流程,以及用于封装失效分析的相关x射线和fs-laser/FIB-SEM工作流程。
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