Application of class D resonant inverter to titanium thin film sputtering on glass slide

Woratut Chaiyakun, P. Liutanaku, S. Chaiyakun
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引用次数: 2

Abstract

Thin film sputtering on the desired substrate is one of an industrial application that needs to split atoms of sputter gas, such as Argon (Ar), to ions and electrons. This can be done by plasma driven circuit that delivers a high frequency sinusoidal current waveform to the sputtering machine. For the reason of high efficiency (more than 70% at 100 - 500 W) with high frequency sinusoidal current waveform, this paper presents an application of half-bridge class D series-parallel-resonant inverter for plasma-driven circuit. In order that the inverter can operate at zero voltage turn-on switches (ZVS), the resonant frequency (fo) of resonant tank is set below switching frequency (f). However, the vacuumed chamber of sputtering system has a complicated physical structure, so that a simply load model is used together with an ideal model of matching impedance transformer. The design concept is realized by 373 W of prototype with 80.7% of efficiency at 100 kHz switching frequency. Under environment of Argon gas, the experimental results verify that the prototype can sputter thin film of material target; which here is Titanium, on glass slide.
D类谐振逆变器在钛薄膜溅射玻片上的应用
在期望的衬底上进行薄膜溅射是一种工业应用,需要将溅射气体原子(如氩)分裂为离子和电子。这可以通过等离子体驱动电路实现,该电路向溅射机提供高频正弦电流波形。针对高频正弦电流波形效率高(100 ~ 500w时效率可达70%以上)的特点,本文提出了一种半桥式D级串并联谐振逆变器在等离子体驱动电路中的应用。为了使逆变器能在零电压导通开关(ZVS)下工作,将谐振槽的谐振频率(fo)设置在开关频率(f)以下。但溅射系统的真空室物理结构复杂,因此采用简单的负载模型和理想的匹配阻抗互感器模型。在100 kHz开关频率下,样机功率为373 W,效率为80.7%,实现了设计理念。在氩气环境下,实验结果验证了原型机能够溅射材料靶膜;这是钛,在玻璃片上。
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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