{"title":"Performance comparison of T-ZSI, ZSI and VSI based on the power loss during switching operation of installed power IGBT switch for EV Applications","authors":"Manish Bharat, A. Murty","doi":"10.1109/TEECCON54414.2022.9854826","DOIUrl":null,"url":null,"abstract":"In this paper Trans-Z source inverter (.T-ZSI), Z Source Inverter (.ZSI) and Voltage source inverter (VSI) topology performance is compared, analyzed and power loss due to switching of IGBT is calculated under time domain. During the switching operation, power loss depends on the numbers of switches, ratings and specifications. Various PWM techniques are used to overcome the losses due to switching sequence. By varying modulation index (M) to a particular level ¿ 1, power loss in T-ZSI and ZSI is minimized. To determine the losses, mathematical formulation in time domain is framed. Based on the power loss during switching operation, motors for Electrical Vehicle (EV) are selected. For lower input voltage 400V, VSI topology is selected which boost the voltage to 600V and gives better performance compared to T-ZSI and ZSI in all the operating points. Whereas T-ZSI and ZSI used its shoot through states to boost the voltage during off condition. An experimental setup with a input of 400V, 600V,800V and 1200V having maximum frequency of 15Khz is selected and the power loss across the IGBT switches is calculated for three different inverter topologies. The Electric Vehicles/Hybrid Electric Vehicles are considered as the main transportation vehicles of future as they use non fossil fuels. These are feature rich, easy to handle, operate and durable with high reliability [3]. The proposed research is intended to explore the possibility of increasing the driving range of the Electric Vehicles (EVs) with a smart power electronic converter having high efficiency and reliability","PeriodicalId":251455,"journal":{"name":"2022 Trends in Electrical, Electronics, Computer Engineering Conference (TEECCON)","volume":"15 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"2022-05-26","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"1","resultStr":null,"platform":"Semanticscholar","paperid":null,"PeriodicalName":"2022 Trends in Electrical, Electronics, Computer Engineering Conference (TEECCON)","FirstCategoryId":"1085","ListUrlMain":"https://doi.org/10.1109/TEECCON54414.2022.9854826","RegionNum":0,"RegionCategory":null,"ArticlePicture":[],"TitleCN":null,"AbstractTextCN":null,"PMCID":null,"EPubDate":"","PubModel":"","JCR":"","JCRName":"","Score":null,"Total":0}
引用次数: 1
Abstract
In this paper Trans-Z source inverter (.T-ZSI), Z Source Inverter (.ZSI) and Voltage source inverter (VSI) topology performance is compared, analyzed and power loss due to switching of IGBT is calculated under time domain. During the switching operation, power loss depends on the numbers of switches, ratings and specifications. Various PWM techniques are used to overcome the losses due to switching sequence. By varying modulation index (M) to a particular level ¿ 1, power loss in T-ZSI and ZSI is minimized. To determine the losses, mathematical formulation in time domain is framed. Based on the power loss during switching operation, motors for Electrical Vehicle (EV) are selected. For lower input voltage 400V, VSI topology is selected which boost the voltage to 600V and gives better performance compared to T-ZSI and ZSI in all the operating points. Whereas T-ZSI and ZSI used its shoot through states to boost the voltage during off condition. An experimental setup with a input of 400V, 600V,800V and 1200V having maximum frequency of 15Khz is selected and the power loss across the IGBT switches is calculated for three different inverter topologies. The Electric Vehicles/Hybrid Electric Vehicles are considered as the main transportation vehicles of future as they use non fossil fuels. These are feature rich, easy to handle, operate and durable with high reliability [3]. The proposed research is intended to explore the possibility of increasing the driving range of the Electric Vehicles (EVs) with a smart power electronic converter having high efficiency and reliability
本文对反Z源逆变器(. t - zsi)、Z源逆变器(. zsi)和电压源逆变器(VSI)的拓扑性能进行了比较和分析,并在时域下计算了IGBT开关的功率损耗。在开关操作过程中,功率损耗与开关数量、额定和规格有关。各种PWM技术被用来克服由于开关顺序造成的损耗。通过改变调制指数(M)到一个特定的水平¿1,功率损耗在T-ZSI和ZSI是最小的。为了确定损耗,建立了时域数学公式。根据开关过程中的功率损耗,选择电动汽车的电机。对于较低的输入电压400V,选择VSI拓扑,将电压提升到600V,在所有工作点上比T-ZSI和ZSI具有更好的性能。而T-ZSI和ZSI则在关闭状态下使用其发射状态来提高电压。选择了输入400V、600V、800V和1200V的实验装置,最大频率为15Khz,并计算了三种不同逆变器拓扑结构下IGBT开关的功率损耗。电动汽车/混合动力汽车被认为是未来的主要交通工具,因为它们使用非化石燃料。特点丰富,操作方便,经久耐用,可靠性高[3]。本课题旨在探索利用高效可靠的智能电力电子变换器提高电动汽车续驶里程的可能性