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DynamicevolutioncontrolforsynchronousbuckDC–DCconverter:Theory,modelandsimulationAcco...
Dynamic evolution control for synchronous buck DC–DC converter: Theory, model and simulation
According to the growth of power electronics application, the use of the synchronous buck converter has increased. This converter is one of the most common converter topologies that are usually used in power electronics application . Synchronous buck converters are step-down switching-mode power converters. They are popular because of their high efficiency and compact size. They are used in place of linear voltage regulators at a relatively high output power.
Synchronous buck converters are the most widely used type of power converter in battery-powered applications. Many application of power electronics converter use the synchronous buck converter as their basic topology. For example, synchronous buck converter is usually used in high efficiency power supplies.In view of this, the need of good controllers for synchronous buck converter also increases. There is an increasing need for good controllers to obtain precise output voltage regulation under different supply and load conditions.Synchronous buck converters represent a challenging field for sophisticated control techniques application due to their intrinsic nature of nonlinear and time-variant systems . In terms of converter controller design, the use of averaging or sampling techniques, followed by linearization and small-signal analysis allows the derivation of linear time-invariant
dynamic models for any converter topology. This approach enables the designer to use a simple linear controller to keep the system stable. However, they are normally dependent on the converter’s operating point . In other words, it is only applicable for a near specified operating point, while the parameters of any transfer function or state-space matrix describing a DC–DC converter may vary depending on its output voltage, input voltage or load current. 展开
According to the growth of power electronics application, the use of the synchronous buck converter has increased. This converter is one of the most common converter topologies that are usually used in power electronics application . Synchronous buck converters are step-down switching-mode power converters. They are popular because of their high efficiency and compact size. They are used in place of linear voltage regulators at a relatively high output power.
Synchronous buck converters are the most widely used type of power converter in battery-powered applications. Many application of power electronics converter use the synchronous buck converter as their basic topology. For example, synchronous buck converter is usually used in high efficiency power supplies.In view of this, the need of good controllers for synchronous buck converter also increases. There is an increasing need for good controllers to obtain precise output voltage regulation under different supply and load conditions.Synchronous buck converters represent a challenging field for sophisticated control techniques application due to their intrinsic nature of nonlinear and time-variant systems . In terms of converter controller design, the use of averaging or sampling techniques, followed by linearization and small-signal analysis allows the derivation of linear time-invariant
dynamic models for any converter topology. This approach enables the designer to use a simple linear controller to keep the system stable. However, they are normally dependent on the converter’s operating point . In other words, it is only applicable for a near specified operating point, while the parameters of any transfer function or state-space matrix describing a DC–DC converter may vary depending on its output voltage, input voltage or load current. 展开
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动态演化控制同步降压直流-直流转换器–:理论,模型与仿真
根据发展的电力电子应用,使用同步降压转换器增加了。这是一种最常见的变换器拓扑,通常被使用在电力电子应用。同步降压转换器降压开关电源转换器。他们都很受欢迎,因为他们的高效率和紧凑的尺寸。他们是用来代替线性稳压器在一个相对高功率输出。
同步降压转换器是最广泛使用的类型的电源转换器,电池供电的应用。许多应用电力电子转换器使用同步降压转换器的基本拓扑。例如,同步降压转换器通常是用于高效率的电力供应。鉴于此,需要很好的控制器的同步降压转换器也增加。人们越来越需要良好的控制器获取精确的输出电压调节下,不同的电源和负载条件。同步降压转换器是一个具有挑战性的领域的先进控制技术的应用由于其固有的性质的非线性和时变系统。从转换器控制器的设计,利用平均或取样技术,其次是线性化和小信号分析可以得出的线性时不变
动态模型的任何变换器拓扑。这种做法使设计者使用简单的线性控制器使系统保持稳定。然而,它们通常依赖于转换器的操作点。换句话说,它只适用于特定的工作点附近,而参数的任何传递函数或状态空间矩阵描述直流直流转换器–可能取决于其输出电压,输入电压或负载电流。
根据发展的电力电子应用,使用同步降压转换器增加了。这是一种最常见的变换器拓扑,通常被使用在电力电子应用。同步降压转换器降压开关电源转换器。他们都很受欢迎,因为他们的高效率和紧凑的尺寸。他们是用来代替线性稳压器在一个相对高功率输出。
同步降压转换器是最广泛使用的类型的电源转换器,电池供电的应用。许多应用电力电子转换器使用同步降压转换器的基本拓扑。例如,同步降压转换器通常是用于高效率的电力供应。鉴于此,需要很好的控制器的同步降压转换器也增加。人们越来越需要良好的控制器获取精确的输出电压调节下,不同的电源和负载条件。同步降压转换器是一个具有挑战性的领域的先进控制技术的应用由于其固有的性质的非线性和时变系统。从转换器控制器的设计,利用平均或取样技术,其次是线性化和小信号分析可以得出的线性时不变
动态模型的任何变换器拓扑。这种做法使设计者使用简单的线性控制器使系统保持稳定。然而,它们通常依赖于转换器的操作点。换句话说,它只适用于特定的工作点附近,而参数的任何传递函数或状态空间矩阵描述直流直流转换器–可能取决于其输出电压,输入电压或负载电流。
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