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Trans Z-source-based half-bridge inverter: A method for achieving high voltage gain
International Journal of Circuit Theory and Applications ( IF 2.3 ) Pub Date : 2022-08-21 , DOI: 10.1002/cta.3400
Mohammadamin Aalami 1 , Ebrahim Babaei 1, 2 , Saeid Ghassem Zadeh 1 , Atif Iqbal 3
Affiliation  

This article offers a modified trans Z-source-based half-bridge inverter topology. A suitable pulse width modulation (PWM)-based control method is applied on the proposed inverter. Regarding this control technique, the state of switches in each of the operational states is obtained, and their equivalent control circuits are demonstrated and examined in depth. With the help of the results of these analyses, the boost factor for the proposed structure can be calculated. Additionally, the necessary equations for designing the passive components, as well as the power ratings of the active components, are found. Then, in order to evaluate the advantages and disadvantages of the proposed topology, a comparative study is conducted in several aspects, including the boost factor, the voltage stresses on capacitors, and the voltage stresses on passive devices. This comparison demonstrates that the proposed topology provides a high boost factor while minimizing voltage stresses on the devices, resulting in a smaller volume and size and a lower cost. Once the proposed topology has been thoroughly analyzed, the total power losses and the percentages of power losses consumed by each component device are calculated to obtain efficiency. Finally, an experimental prototype based on the equations for passive and active components is developed. Experiments are used to verify the validity of the proposed topology and the accuracy of the equations.

中文翻译:

基于 Trans Z 源的半桥逆变器:一种实现高电压增益的方法

本文提供了一种改进的基于反式 Z 源的半桥逆变器拓扑结构。一种合适的基于脉冲宽度调制 (PWM) 的控制方法应用于所提出的逆变器。关于这种控制技术,获得了每个操作状态下的开关状态,并对其等效控制电路进行了演示和深入研究。借助这些分析的结果,可以计算出建议结构的提升因子。此外,还找到了设计无源元件所需的方程式以及有源元件的额定功率。然后,为了评估所提出拓扑的优缺点,在几个方面进行了比较研究,包括升压因子、电容器上的电压应力、以及无源器件的电压应力。这一比较表明,所提出的拓扑结构提供了高升压系数,同时最大限度地减少了器件上的电压应力,从而实现了更小的体积和尺寸以及更低的成本。一旦对建议的拓扑结构进行了彻底分析,就可以计算总功率损耗和每个组件设备消耗的功率损耗百分比以获得效率。最后,开发了一个基于无源和有源元件方程的实验原型。实验用于验证所提出的拓扑结构的有效性和方程的准确性。一旦对建议的拓扑结构进行了彻底分析,就可以计算总功率损耗和每个组件设备消耗的功率损耗百分比以获得效率。最后,开发了基于无源和有源元件方程的实验原型。实验用于验证所提出的拓扑结构的有效性和方程的准确性。一旦对建议的拓扑结构进行了彻底分析,就可以计算总功率损耗和每个组件设备消耗的功率损耗百分比以获得效率。最后,开发了一个基于无源和有源元件方程的实验原型。实验用于验证所提出的拓扑结构的有效性和方程的准确性。
更新日期:2022-08-21
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