Integrated power electronics using a ferrite-based low-temperature co-fired ceramic materials system

A. Roesler, J. Schare, Chad Hettler, D. Abel, G. Slama, D. Schofield
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引用次数: 7

Abstract

This paper discusses a new approach to making hybrid power electronic circuits by combining a low-temperature (850°C to 950°C) co-fired ceramic (LTCC) substrate, planar LTCC ferrite transformers/inductors and integrated passive components into a multilayer monolithic package using a ferrite-based LTCC material system. A ferrite tape functions as the base material for this LTCC system. The material system includes physically and chemically compatible dielectric paste, dielectric tape and conductor materials which can be co-fired with the base ferrite LTCC tape to create sintered devices with excellent magnetic coupling, high permeability (~400), high resistivity (> 1012 Ω·cm) and good saturation (~0.3 T). The co-fired ferrite and dielectric materials can be used as a substrate for attaching or housing semiconductor components and other discrete devices that are part of the power electronics system. Furthermore, the ability to co-fire the ferrite with dielectric and conductor materials allows for the incorporation of embedded passives in the multilayer structure to create hybrid power electronic circuits. Overall this thick film material set offers a unique approach to making hybrid power electronics and could potentially allow a size reduction for many commercial dc-dc converter and other power electronic circuits.
采用基于铁氧体的低温共烧陶瓷材料系统集成电力电子器件
本文讨论了一种制造混合电力电子电路的新方法,该方法将低温(850°C至950°C)共烧陶瓷(LTCC)衬底,平面LTCC铁氧体变压器/电感器和集成无源元件结合使用基于铁氧体的LTCC材料系统集成到多层单片封装中。铁氧体带作为LTCC系统的基础材料。该材料体系包括物理和化学相容的介电浆料、介电带和导体材料,它们可与基铁氧体LTCC带共烧,以创建具有优异磁耦合、高磁导率(~400)、高电阻率(> 1012 Ω·cm)和良好的饱和度(~0.3 T)。共烧铁氧体和介电材料可用作衬底,用于连接或容纳半导体元件和其他分立器件,这些器件是电力电子系统的一部分。此外,铁氧体与介电和导体材料共烧的能力允许在多层结构中加入嵌入式无源,以创建混合电力电子电路。总的来说,这种厚膜材料为制造混合电力电子产品提供了一种独特的方法,并有可能使许多商用dc-dc转换器和其他电力电子电路的尺寸减小。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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