Transactions of the IRE Professional Group on Circuit Theory · 1954 · 19 citations · 6 references
EngineeringElectrical EngineeringSystems EngineeringCircuit TheorySystem DynamicsSystems ModelingDynamic Response AnalysisFrequency ResponseFrequency-domain AnalysisTransfer FunctionsTransient AnalysisTransient ResponseCircuit Transient AnalysisImpulse ResponseLaplace TransformSystem Response AnalysisTime-domain Response AnalysisTransfer Function AnalysisTransfer Function ApproximationTransfer Function Estimation
The numerical-analysis techniques appropriate for the rapid ap- proximate analysis of network response can be unified in terms of the z transform, or generalized Laplace transform. Application of the methods of analysis requires knowledge of only the z -domain integra- tion operators for the multiple integration of impulse trains. The time functions can be approximated by rectangular pulses, straight lines, or parabolas of any order. The numerical methods are illustrated with several examples. The transient response of a network can be evaluated without factoring a polynomial or adding damped sinusoids; the closed-loop transient response of a feedback system can be determined directly from the open-loop characteristics; a system with a transportation lag can be analyzed; the relations between frequency-domain and time-domain characteristics can be simplified; and a variety of other analysis prob- lems are rapidly and easily considered. The same numerical methods can be utilized to determine the transfer function of a network for a prescribed transient response.
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Methods of applied mathematics
C.W. HargenS · Journal of the Franklin Institute · 1953 · 169 citations
A method of analysing the effect of certain kinds of non-linearity in closed-cycle control systems
A. Tustin · The journal of the Institution of Electrical Engineers. Part 2A, Automatic regulators and servo mechanisms · 1947 · 15 citations
Engineering, Mechanical Engineering, Systems Engineering +17