High Performance Embedded Passive Components Based on Novel Ultrahigh-K and Ultrahigh-Q Nanocomposites for Microelectronics Systems

用于微电子系统的基于新型超高 K 和超高 Q 纳米复合材料的高性能嵌入式无源元件

• 批准号: 0501405
• 负责人: Ching-Ping Wong
• 金额: $ 24万
• 依托单位: Georgia Tech Research Corporation
• 依托单位国家: 美国
• 项目类别: Continuing Grant
• 财政年份: 2005
• 资助国家: 美国
• 起止时间: 2005-07-01 至 2009-06-30
• 项目状态: 已结题
• 来源: https://www.nsf.gov/awardsearch/showAward?AWD_ID=0501405&HistoricalAwards=false
• 关键词: Performance; Embedded; Passive; Components; Based

The objective of this research is to fundamentally understand the electric, dielectric and magnetic behaviors of novel polymer-based low-processing temperature ultrahigh-k and high-Q nanocomposites and to explore their applications in embedded passive components. The approach is to study and optimize the interfaces between carbon black and its polymer matrix to reduce the dielectric loss of ultrahigh-k (13,000) polymer/carbon black composites. The dielectric loss will be controlled by various methods such as carbon black surface modification/treatment, and chelating agent inclusion, and Coulomb blockade effects. Another approach is to synthesize and study the core-shell structured nanoparticles with various passivation natures, mimicking ultrahigh-k nancomposites filled with self-passivation aluminum particles. For high-Q embedded inductors, the approach is to synthesize and study nanophase ferromagnetic and soft ferromagnetic particles and investigate their composites as the core material for high-frequency applications.The fundamental understanding of the polymer-based low-processing temperature ultrahigh-k and high-Q nanocomposites from this prosposed research will be a key enabling technology for the application of low cost and high performance components for next-generation electronics. This technology can be readily transferred to industry. This will certainly speed up the pace of microelectronic industry, and retain numerous high tech jobs in the US. The broader impacts also resulting from the proposed research include recruiting and advising students at pre-college, undergraduate and graduate levels, especially those from the underrepresented groups in the research and education activities. The PI will continue his practice of providing resources to the greater Atlanta area with an emphasis on those underrepresented groups.

本研究的目的是从根本上了解新型聚合物基低加工温度超高k和高Q纳米复合材料的电，介电和磁行为，并探索其在嵌入式无源元件中的应用。研究和优化炭黑与聚合物基体之间的界面以降低超高k（13，000）聚合物/炭黑复合材料的介电损耗。介电损耗将通过各种方法控制，例如炭黑表面改性/处理、螯合剂包合物和库仑阻塞效应。另一种方法是合成和研究具有不同钝化性质的核壳结构纳米粒子，模拟填充有自钝化铝粒子的超高k纳米复合材料。对于高Q嵌入式电感器，该方法是合成和研究纳米铁磁和软磁粒子，并研究它们的复合材料作为高频应用的核心材料。从这项拟议的研究中对聚合物基低加工温度超高k和高Q纳米复合材料的基本理解将是下一代低成本和高性能元件应用的关键使能技术。代电子。这项技术可以很容易地转移到工业上。这肯定会加快微电子产业的步伐，并在美国保留大量高科技工作岗位。拟议的研究还产生了更广泛的影响，包括在大学预科、本科和研究生阶段招募和指导学生，特别是那些来自研究和教育活动中代表性不足群体的学生。PI将继续他的做法，提供资源，以大亚特兰大地区的重点是那些代表性不足的群体。