-功率半导体器件

J. Hudgins, R. D. Doncker
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引用次数: 113

摘要

功率半导体器件是现代电力电子设备的核心。它们以开关矩阵的形式用于电力电子转换器中,并有助于在相同(交流控制器)或不同频率(环转换器)下从交流到直流(整流器),直流到直流(斩波器),直流到交流(逆变器)和交流到交流的功率转换。开关方式的功率转换效率高,但缺点是由于开关的非线性,在供电侧和负载侧都产生谐波。这些开关并不理想,它们具有传导和接通和关断开关损耗。变换器广泛应用于加热和照明控制、交流和直流电源、电化学过程、直流和交流电机驱动、静态无功产生、有源谐波滤波等应用。虽然功率半导体器件在电力电子设备中的成本可能很难超过20 - 30%,但器件的特性可能会对设备的总成本和性能产生很大的影响。设计设备的工程师必须彻底了解设备及其特性,以便设计出具有最佳性能的高效,可靠和具有成本效益的系统。值得注意的是,现代电力电子技术的发展通常伴随着功率半导体器件的发展。微电子技术的进步极大地促进了功率器件材料、加工、制造、封装、建模和仿真方面的知识。今天的功率半导体器件几乎完全基于硅材料,可分为以下几种:
本文章由计算机程序翻译,如有差异,请以英文原文为准。
- Power Semiconductor Devices
Power semiconductor devices constitute the heart of modern power electronic apparatus. They are used in power electronic converters in the form of a matrix of on-off switches, and help to convert power from ac-to-dc (rectifier), dc-to-dc (chopper), dc-to-ac (inverter), and ac-to-ac at the same (ac controller) or different frequencies (cycloconverter). The switching mode power conversion gives high efficiency, but the disadvantage is that due to the nonlinearity of switches, harmonics are generated at both the supply and load sides. The switches are not ideal, and they have conduction and turn-on and turn-off switching losses. Converters are widely used in applications such as heating and lighting controls, ac and dc power supplies, electrochemical processes, dc and ac motor drives, static VAR generation, active harmonic filtering, etc. Although the cost of power semiconductor devices in power electronic equipment may hardly exceed 20–30 percent, the total equipment cost and performance may be highly influenced by the characteristics of the devices. An engineer designing equipment must understand the devices and their characteristics thoroughly in order to design efficient, reliable, and cost-effective systems with optimum performance. It is interesting to note that the modern technology evolution in power electronics has generally followed the evolution of power semiconductor devices. The advancement of microelectronics has greatly contributed to the knowledge of power device materials, processing, fabrication, packaging, modeling, and simulation. Today’s power semiconductor devices are almost exclusively based on silicon material and can be classified as follows:
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