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Technology of Embedding Systems as a Method for Studying the Dynamic Regimes of Complex Electric Systems

机译:嵌入系统技术作为研究复杂电力系统动态状态的一种方法

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Approximately 20-25 years ago, new approaches to the research of automatic control systems based on matrix methods appeared in the literature. New matrix designs (zero divisors, canonizers) have been developed that make it possible to extend the range of solvable problems, including not only minimal-phase, but also non-minimal-phase systems. It is obvious that matrix methods of investigation of linear systems are promising directions for the development of analysis and synthesis of dynamic objects, including studies of the steady–state stability of complex electrical systems. The mathematical formulation of the problem of studying the steady–state stability of electric power systems boils down to the following. Since all processes in the elements of the automatic control system are described by differential equations, the stability analysis reduces to investigating the properties of the solution of linearized equations for small perturbations. When analyzing and synthesizing dynamic systems, it becomes necessary to solve matrix equations. Along with the known methods for solving matrix equations, the article gives a method called the canonization method. Advantages of this method is its analyticity, i.e. this method allows us to carry out analytical studies of the resulting matrix equations. Canonicalization is based on a modified Gauss algorithm, in which the computational procedure is minimized. Here it should be noted that in the electrical system, when perturbations occur, the loss of stability occurs as a result of the synchronous generator leaving the synchronism or in the general case of rotating machines. Static elements affect the stability of electrical systems only by their parameters, which are usually assumed to be constant or slowly changing. Therefore, determining the conditions for the output from synchronism of a particular synchronous generator or their grostaups (stations) in a complex electrical system is the main task. The technology of embedding systems is an effective method for studying the steady–state stability (small oscillations) of an electrical system that makes it possible to determine all possible dynamic and structural properties of the linear matrix system under study.
机译:大约20-25年前,基于矩阵方法的自动控制系统研究的新方法出现在文献中。已经开发出新的矩阵设计(零除数,规范化),可以扩展可解决问题的范围,不仅包括最小相位系统,而且包括非最小相位系统。显然,研究线性系统的矩阵方法是发展动态对象分析和综合(包括研究复杂电气系统的稳态稳定性)的有希望的方向。研究电力系统稳态稳定性问题的数学公式可归结为以下内容。由于自动控制系统各要素的所有过程都由微分方程式描述,因此稳定性分析简化为调查线性方程方程组对小扰动的影响。在分析和综合动态系统时,必须求解矩阵方程。除了解决矩阵方程式的已知方法外,本文还提供了一种称为规范化方法的方法。该方法的优势在于其分析能力,即该方法使我们能够对所得矩阵方程进行分析研究。规范化基于修改后的高斯算法,该算法将计算过程减至最少。在此应该注意的是,在电气系统中,当发生扰动时,由于同步发电机离开同步或在旋转电机的一般情况下,会导致稳定性损失。静态元素仅通过其参数来影响电气系统的稳定性,这些参数通常被认为是恒定的或缓慢变化的。因此,确定复杂电气系统中特定同步发电机或其组合(站)的同步输出的条件是主要任务。嵌入系统技术是研究电气系统的稳态稳定性(小振荡)的有效方法,可以确定所研究的线性矩阵系统的所有可能的动力学和结构特性。

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