电动汽车专用DC-DC变换器

S. A., L. Chitra, S. Chandran, B. Aravind, J. N. Kumar, S. Jayaprakash, M. Ramkumar
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引用次数: 8

摘要

由于日益严峻的环境挑战和复杂的排放法规,电动汽车已被视为传统交通工具的替代品。现代电动汽车使用由电能驱动的电子电路。直流到直流转换器和直流到交流逆变器都被归类为PECs。直流到交流逆变器:在提供公用电力的同时也驱动电动机;直流到直流转换器作为低压公用事业电力的来源。直流到直流转换器根据应用需求进行分类。为了给大功率负载充电,需要增加输出。正因为如此,它使用SEPIC转换器。DC-DC变换器是指单端初级电感变换器(SEPIC)。电势可以是任何值,例如小于、等于或大于输入电压。控制晶体管的占空比控制SEPIC输出。在SEPIC中,电压转换是通过在电感和电容器之间传递能量来完成的。SEPIC升压变换器涉及降压-升压变换器的改造。两者都具有可比性。SEPIC转换器有几个好处。它们是非反向输入-输入和输出电压相同的极性,在输出和输入之间,能量使用串联电容器连接-到短路输出,产生更大的响应性,真正的关机是可能的-如果开关断开,输出到0V。该转换器在CCM模式下操作时易于控制。由于两个开关使用相同的门控脉冲,所以可以调整占空比以获得宽范围的输出电压。在元件数量、二极管和开关电压应力以及电压增益方面,比较了最近的非耦合电感变换器和所提出的变换器。在输出电压方面,建议的变换器在开关上产生较低比例的电压应力。与现有的变换器相比,建议的变换器用更少的元件产生高电压增益。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Distinguished DC-DC Converter for an Electric Vehicle
Due to rising environmental challenges and complicated emission regulations, electric vehicles have been seen as an alternative to traditional transportation. Modern electric vehicles use electronic circuits powered by electrical energy (PECs). DC to DC converters and DC to AC inverters are both classed as PECs. DC to AC inverter: It delivers utility power while also driving electric motors; the DC to DC converter serves as a source of low voltage utility electricity. DC to DC converters are categorised according to application requirements. In order to charge a high-power electric load, an increase in output is needed. It is because of this that it uses the SEPIC converter. DC-DC converter designates the single-ended primary-inductor converter (SEPIC). The electrical potential may be any value, such as less than, equal to, or greater than the input voltage. Duty cycle of the control transistor governs the SEPIC output. In SEPIC, voltage conversion is accomplished by transferring energy between inductors and capacitors. SEPIC boost converter relates to buck-boost converter modification. Both are comparable. The SEPIC converter has a few benefits. They are non-inverted input- same polarity of input and output voltage, between output and input, energy is linked using a series capacitor- to a short circuit output, producing greater responsiveness, genuine shutdown is possible- output goes to 0V if switch is off. This converter is simple to control while operating in CCM mode. Because both switches use the same gating pulse, the duty cycle may be adjusted to obtain a broad range of output voltage. In terms of number of components, diode and switch voltage stress, and voltage gain, recent non-coupled inductor converters are compared to the proposed converter. With regard to output voltage, the suggested converter produces a lower proportion of voltage stress on switches. When compared to existing converters, the suggested converter produces a high voltage gain with fewer components.
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