Title :
Computational aspects of the bilinear transformation based algorithm for S-plane to Z-plane mapping
Author_Institution :
Dept. of Electr. & Comput. Eng., Syracuse Univ., NY, USA
fDate :
11/1/1988 12:00:00 AM
Abstract :
The author analyzes the computational complexity of an algorithm by F.D. Groutage et al. (ibid., vol.AC-32, no.7, p.635-7, July 1987) for performing the transformation of a continuous transfer function to a discrete equivalent by a bilinear transformation. Groutage et al. defend their method by noting that their technique is not limited to the bilinear transformation. Rather, it can be extended to any higher-order integration rule (Simpson, Runge-Kutta, etc.), or to any higher-order expansion of the ln function. In general, using the method, s can be any appropriate mapping function s=f (z)
Keywords :
computational complexity; linear algebra; S-plane; Z-plane; bilinear transformation; computational complexity; continuous transfer function; higher-order integration rule; linear algebra; mapping; Algorithm design and analysis; Contracts; Digital filters; Equations; Linear systems; Multidimensional systems; Polynomials; Sampling methods; Stability; Transfer functions;
Journal_Title :
Automatic Control, IEEE Transactions on