用于航空航天的微型低压差混合式稳压器新工艺

Anju Singh, S. Vaishnavi, Ajay Andhiwal, A. V. Nirmal
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引用次数: 0

摘要

低压差稳压器(LDO)广泛应用于需要低噪声和稳定电压供应的电力调节和配电系统中,不受负载、输入电压变化、温度和时间的影响。本文详细介绍了基于厚膜技术的微型LDO混合材料的发展,通过实施用于空间电力系统的高导热GlidCop基础金属封装和铜芯引脚材料,提供了卓越的电气性能和所需的热管理。此外,还重点介绍了用于混合电路各个环节的高级附着材料,如硅晶片组件到衬底、衬底到封装以及用于等距传热的散热器界面材料。由于传统的封装方法导致性能不稳定和热交易极其难以管理,LDO的混合实现面临着各种挑战。在设计功能和老化测试夹具时所面临的制造挑战和问题也得到了解决。本文还详细介绍了Glidcop包鉴定和混合实现过程鉴定。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Novel Process for Miniature Low Dropout Voltage Regulator Hybrid for Aerospace Applications
Low Dropout Regulators (LDO) are extensively used in power conditioning and distribution systems that need a low noise & stable voltage supplies independent of load, input voltage variations, temperature, and time. This article details the development of thick film technology-based miniature LDO hybrid providing excellent electrical performance with required thermal management attained by implementing high thermal conductive GlidCop base metal package & Copper cored pin materials for applications in space power systems. Advance attachment materials used at various segments of hybrid i.e., silicon die component to substrate, substrate to package and heat sink interface material for isometric heat transfer, are also highlighted. Hybrid realization of LDO faced various challenges as traditional packaging approach results in instable performance with extremely unmanageable thermal deals. Fabrication challenges and issues faced while designing functional & Burn-in test jigs are also addressed. Glidcop package qualification and hybrid realization process qualification details have also been presented in this article.
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