Geometric dynamics of nonlinear circuits and jump effects
Tina Thiessen, Wolfgang M. Mathis
Abstract
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Tina Thiessen, Wolfgang M. Mathis
Abstract
Open-access reader
Purpose This paper seeks to give an outline about the geometric concept of electronic circuits, where the jump behavior of nonlinear circuits is emphasized. Design/methodology/approach A sketch of circuit theory in a differential geometric setting is given. Findings It is shown that the structure of circuit theory can be given in a much better way than by means of a description of circuits using concrete coordinates. Furthermore, the formulation of a concrete jump condition is given. Originality/value In this paper, an outline is given about the state of the art of nonlinear circuits from a differential geometric point of view. Moreover, differential geometric methods were applied to two example circuits (flip flop and multivibrator) and numerical results were achieved.
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Purpose This paper seeks to give an outline about the geometric concept of electronic circuits, where the jump behavior of nonlinear circuits is emphasized. Design/methodology/approach A sketch of circuit theory in a differential geometric setting is given. Findings It is shown that the structure of circuit theory can be given in a much better way than by means of a description of circuits using concrete coordinates. Furthermore, the formulation of a concrete jump condition is given. Originality/value In this paper, an outline is given about the state of the art of nonlinear circuits from a differential geometric point of view. Moreover, differential geometric methods were applied to two example circuits (flip flop and multivibrator) and numerical results were achieved.
Key concepts: Electronic circuit, Nonlinear system, Jump, Differential (mechanical device), Multivibrator, Point (geometry), Sketch, Computer science