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Journal ArticleDOI

Power system dynamic response calculations

B. Stott
- Vol. 67, Iss: 2, pp 219-241
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TLDR
This paper is a critical tutorial-review of the calculation methods used routinely or investigated for use by the industry and concentrates on solution concepts and computational techniques rather than on the analysis of the numerical methods.
Abstract
Engineers in the power industry, face the problem that, while stability is increasingly a limiting factor in secure system operation, the simulation of system dynamic response is grossly overburdening on present-day digital computing resources. Each individual response case involves the step-by-step numerical solution in the time domain of perhaps thousands of nonlinear differential-algebraic equations, at a cost of up to several thousand dollars. A high premium is thus to be placed on the use of the most efficient and reliable modern calculation techniques. This paper is a critical tutorial-review of the calculation methods used routinely or investigated for use by the industry. It concentrates on solution concepts and computational techniques rather than on the analysis of the numerical methods. Details of system modeling are only emphasized when they affect the choice of solution method. The paper concludes with a view of the state of the art and a prediction of future directions of development.

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Citations
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A survey of linear singular systems

TL;DR: In this paper, a brief historical review of linear singular systems is presented, followed by a survey of results on their solution and properties, and the frequency domain and time domain approaches are discussed together to sketch an overall picture of the current status of the theory.
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Stability-constrained optimal power flow

TL;DR: A new methodology that eliminates the need for repeated simulation to determine a transiently secure operating point is presented, and dynamic equations are converted to numerically equivalent algebraic equations and integrated into the standard OPF formulation.
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Voltage instability: phenomena, countermeasures, and analysis methods

T. Van Cutsem
TL;DR: In this paper, the authors describe voltage instability phenomena, enumerate preventive and curative countermeasures, and present in a unified and coherent way various computer analysis methods used or proposed.
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Direct methods for transient stability analysis of power systems: Recent results

TL;DR: In this paper, the authors provide a critical review of the Lyapunov direct method of transient stability analysis of power systems and propose on-line criteria suitable for online implementation.
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Foundations of direct methods for power system transient stability analysis

TL;DR: A complete topological characterization of the stability boundary of a stable equilibrium point is derived and the stability region is shown to be unbounded.
References
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Journal ArticleDOI

Direct solutions of sparse network equations by optimally ordered triangular factorization

TL;DR: With this method, direct solutions are computed from sparse matrix factors instead of from a full inverse matrix, thereby gaining a significant advantage in speed, computer memory requirements, and reduced round-off error.
Journal ArticleDOI

Review of load-flow calculation methods

TL;DR: A survey is presented on the currently available numerical techniques for power-system load-flow calculation using the digital computer, and the suitabilities of various methods for modern applications such as security monitoring and optimal load flow are examined.
Journal ArticleDOI

Simultaneous Numerical Solution of Differential-Algebraic Equations

TL;DR: A unified method for handling the mixed differential and algebraic equations of the type that commonly occur in the transient analysis of large networks or in continuous system simulation is discussed.
Journal ArticleDOI

Computer representation of excitation systems

TL;DR: This paper suggests a common nomenclature and control system representation of the various excitation systems now available that can be used to define input data requirements for computer programs, and can provide a consistent format in which manufacturers can respond to requests for excitation system data to be used for system studies.
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