We illustrate procedures to identify a state-space representation of a lossless- or dissipative system from a given noise-free trajectory; important special cases are passive- and bounded-real systems. Computing a rank-revealing factorization of a Gramian-like matrix constructed from the data, a state sequence can be obtained; state-space equations are then computed solving a system of linear equations. This idea is also applied to perform model reduction by obtaining a balanced realization directly from data and truncating it to obtain a reduced-order mode
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
We show how to compute a minimal Riccati-balanced state map and a minimal Riccati-balanced state spa...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a passive or bounded-real syste...
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
Given a dissipative system behavior with general supply rate, say a ?Sigma-dissipative system, we pr...
We show how to compute a minimal Riccati-balanced state map and a minimal Riccati-balanced state spa...
Modeling of dynamical systems is at the core of the simulation and controller design of modern techn...
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
We show how to compute a minimal Riccati-balanced state map and a minimal Riccati-balanced state spa...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a lossless or dissipative syste...
We illustrate procedures to identify a state-space representation of a passive or bounded-real syste...
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
Given a dissipative system behavior with general supply rate, say a ?Sigma-dissipative system, we pr...
We show how to compute a minimal Riccati-balanced state map and a minimal Riccati-balanced state spa...
Modeling of dynamical systems is at the core of the simulation and controller design of modern techn...
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
We present a method for model reduction based on ideas from the behavioral theory of dissipative sys...
We show how to compute a minimal Riccati-balanced state map and a minimal Riccati-balanced state spa...