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引用次数: 4

Abstract

Lateral Gallium Nitride (GaN) high electron mobility transistors (HEMT) exhibit lower on resistance and high switching speed due to the presence of 2D electron Gas and smaller capacitance. Moreover, the high critical electric field of GaN makes it excellent choice for power semiconductor devices. It has the capability of switching hundreds of volts in nanoseconds, giving it multiple megahertz capability. However, to enable this feature, advanced packaging structure with optimized stray parameters is required. The traditional wire-bonded package of power module has large parasitic inductance, which will cause voltage overshoot, oscillation, parasitic turn-on, and EMI issues. A gate driver integrated wire bondless solution for a GaN half-bridge, phase-leg module is presented in this manuscript. A global optimization is done to achieve 0.68 nH power loop inductance, 1.25 nH gate loop inductance and 0.257°C/W thermal resistance. The hybrid combination of printed circuit board (PCB) and direct bonded copper (DBC) substrate enabled vertical commutation loop, which has helped to limit the stray inductance substantially. The fabricated module shows excellent switching performance with turn-off speed as high as 192 V/ns while not exceeding the voltage overshoot more than 15% of applied DC link voltage.
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一种650V/60A栅极驱动器集成线键合多芯片GaN模块
横向氮化镓(GaN)高电子迁移率晶体管(HEMT)由于二维电子气体的存在和更小的电容,具有更低的电阻和更高的开关速度。此外,氮化镓的高临界电场特性使其成为功率半导体器件的理想选择。它能在纳秒内转换几百伏电压,从而拥有数兆赫的能力。然而,为了实现这一功能,需要具有优化杂散参数的先进封装结构。传统的线键封装功率模块具有较大的寄生电感,会导致电压过调、振荡、寄生导通和电磁干扰等问题。本文提出了一种用于GaN半桥相腿模块的栅极驱动器集成无焊线解决方案。通过全局优化,实现了0.68 nH的功率回路电感、1.25 nH的门回路电感和0.257°C/W的热阻。印刷电路板(PCB)和直接键合铜(DBC)衬底的混合组合使垂直整流环路成为可能,这有助于大大限制杂散电感。制作的模块具有优异的开关性能,关断速度高达192 V/ns,同时电压超调不超过直流链路电压的15%。
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