Title :
Non-degenerate dissipative structures transformation and simulation
Author :
Stork, Milan ; Hrusak, Josef ; Mayer, Daniel
Author_Institution :
Dept. of Appl. Electron. & Telecommun., Univ. of West Bohemia, Plzen, Czech Republic
Abstract :
Computation complexity of a broad variety of practical design problems is known to be strongly depending on an algebraic complexity of corresponding mathematical system representations. Especially some vector-matrix models are frequently used in numerous interdisciplinary fields. One way to overcome the complexity problems is based on some special algebraic structures of low order model approximations, such as e.g. balanced representations. Another approach based on the concept of sparse matrices has also become very popular. As a very successful special case of sparse matrix based approach a class of tridiagonal system representations [1] has found applications in solution of partial differential equations, digital signal processing, image processing, computational fluid dynamics, spline curve fitting and many others. In this contribution a generalized sparse matrix motivated multi-diagonal method is proposed and some new results, based on state space energy motivated causal system representations are presented, too [2].
Keywords :
computational complexity; continuous time filters; sparse matrices; state-space methods; algebraic complexity; balanced representations; causal system representations; computation complexity; continuous-time state-space system structure; mathematical system representations; nondegenerate dissipative structures; simulation; sparse matrix motivated multidiagonal method; transformation; vector-matrix models; Aerospace electronics; Computational modeling; Mathematical model; Space heating; Sparse matrices; Symmetric matrices; Voltage control; controlled current source; dissipation; state space energy; transformation; tridiagonal;
Conference_Titel :
Applied Electronics (AE), 2013 International Conference on
Conference_Location :
Pilsen
Print_ISBN :
978-80-261-0166-6