基于串联SiC mosfet的高dv/dt脉冲发生器

A. Torrisi, D. Brunelli
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引用次数: 0

摘要

电力电子开关器件的新技术和新材料正在蓬勃发展。事实上,宽带隙半导体,如碳化硅(SiC)或氮化镓(GaN),在开关性能方面表现出先进和创新的特性。从而提高开关dv/dt速率,降低开关功率损耗。然而,更快的开关瞬态会增加绝缘材料的应力。因此,我们开发了一种基于四个SiC mosfet串联连接的脉冲发生器,以产生超高速瞬态脉冲。在电子电路设计和实现之后,我们进行了几次测试,展示了脉冲发生器的能力,并证明了在严格的输出负载条件下的正确运行。在4.2 kV脉冲幅值条件下,最佳的dv/dt速率为空载条件下的155 kV/μs, 100pf负载电容下的110 kV/μs。
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High dv/dt pulse generator based on series-connetion SiC MOSFETs
New technologies and materials for power electronic switching devices are gaining momentum. Indeed, wide-bandgap semiconductors, such as silicon carbide (SiC) or gallium nitride (GaN), manifest advanced and innovative properties regarding their switching performance. Thus, increasing the switching dv/dt rate and reducing switching power losses. However, faster switching transient enhances the insulating material stresses. Therefore, we developed a pulse generator based on a series connection of four SiC MOSFETs to produce super-fast transient pulses. After the electronic circuit design and implementation, we performed several tests showing the capability of the pulse generator and proving the correct operation under strict output load conditions. The best-achieved dv/dt rate with a 4.2 kV pulse amplitude is 155 kV/μs in no-load condition and 110 kV/μs on a 100 pF load capacitance.
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