集成IGBT状态实时监测与主动控制的大功率IGBT驱动关键技术研究

Pub Date : 2023-09-08 DOI:10.1109/cpese59653.2023.10303216
Lei Han, Huan Zhu, Yu Zhang, Yupeng Du, Sen Yang, Jianbo Zhou
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引用次数: 0

摘要

绝缘栅双极晶体管(IGBT)作为一种完全可控的电力电子器件,广泛应用于高压直流(HVDC)柔性设备中,其故障模式包括IGBT集电极发射极过压、IGBT栅极发射极过压、IGBT芯片过流、过热或超出安全工作区域(SOA)。由于现有IGBT驱动器仅在发生过流或欠压故障后才报告过流和欠压保护故障,缺乏对IGBT集电极发射极电压(Vce)、栅极发射极电压(Vge)等状态变量的实时过程监控,因此无法准确了解IGBT的真实故障原因和老化趋势。在此基础上,本文首先提出了集成实时监控和主动控制功能的大功率IGBT驱动器的总体设计方案;第二章介绍了IGBT集电极发射极和栅极发射极关通电压的集成测量方法,以满足开关瞬态电压和电压的高动态和高精度性能;最后一章根据实际应用需求,在各种条件下进行实验验证,实现对IGBT模块较为完整的实时监测和主动控制,并根据测量结果进一步建立IGBT故障分析预测模型。
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Research on Key Technologies of High-power IGBT Driver Integrating Real-time Monitoring and Active Control of IGBT Status
Insulated gate bipolar transistor (IGBT), as a fully controlled power electronic device, is widely used in High Voltage Direct Current (HVDC) flexible equipment, and its fault modes include IGBT collector emitter over-voltage, IGBT gate emitter over-voltage, IGBT chip over-current, overheating or beyond safe operating area(SOA). Because the existing IGBT drivers only report overcurrent and undervoltage protection faults after an overcurrent or undervoltage fault occurs, and lack of real-time process monitoring of IGBT collector emitter voltage(Vce), gate emitter voltage(Vge), and other state variables, so the real fault cause and aging trend of IGBT cannot be accurately known. Based on this, This paper firstly presented the overall design scheme of the high-power IGBT driver integrating real-time monitoring and active control functions; The next chapter indicated the integrated measurement method for the IGBT collector emitter and gate emitter off-state and on-state voltage to meet the high dynamic and high precision performance of the switching transient V ce and V ge ; In the final chapter, based on practical application requirements, the experimental verification is carried out under various conditions to achieve relatively complete real-time monitoring and active control of the IGBT module, and the IGBT fault analysis and prediction model will be further established based on the measurement results.
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