Sign-Perturbed Sums (SPS) is a finite sample system identification method that constructs exact, non-asymptotic confidence regions for the unknown parameters of linear systems without using any knowledge about the disturbances except that they are symmetrically distributed. In the available literature, the theoretical properties of SPS have been investigated under the assumption that the order of the system model is known to the user. In this paper, we analyse the behaviour of SPS when the model assumed by the user does not match the data generation mechanism, and we propose a new SPS algorithm able to detect the circumstance that the model order is incorrect
Abstract—Recently, a new finite-sample system identification algorithm, called Sign-Perturbed Sums (...
Abstract — In this paper we propose an algorithm for con-structing non-asymptotic confidence regions...
In 2005, with the publication of the LSCR algorithm (Leave-out Sign-dominant Correlation Regions), a...
Sign-Perturbed Sums (SPS) is a finite sample system identification method that can build exact confi...
Sign-Perturbed Sums (SPS) is a finite sample system identification method that can build exact confi...
Sign-Perturbed Sums (SPS) is a recently developed non-asymptotic system identification algorithm tha...
Sign-Perturbed Sums (SPS) is a non-asymptotic system identification method that can construct confid...
Sign-Perturbed Sums (SPS) is a non-asymptotic system identification method that can construct confid...
Abstract—We propose a new system identification method, called Sign- Perturbed Sums (SPS), for const...
We propose a new system identification method, called Sign - Perturbed Sums (SPS), for constructing ...
Sign-Perturbed-Sums (SPS) is a system identification algorithm that, under mild assumptions on the d...
Abstract We propose a new finite sample system identification method, called Sign-Perturbed Sums (SP...
Sign-Perturbed Sums (SPS) is a system identification method that constructs non-asymptotic confidenc...
We propose a generalization of the recently developed system identification method called Sign-Pertu...
In this paper we propose an algorithm for constructing non-asymptotic confidence regions for paramet...
Abstract—Recently, a new finite-sample system identification algorithm, called Sign-Perturbed Sums (...
Abstract — In this paper we propose an algorithm for con-structing non-asymptotic confidence regions...
In 2005, with the publication of the LSCR algorithm (Leave-out Sign-dominant Correlation Regions), a...
Sign-Perturbed Sums (SPS) is a finite sample system identification method that can build exact confi...
Sign-Perturbed Sums (SPS) is a finite sample system identification method that can build exact confi...
Sign-Perturbed Sums (SPS) is a recently developed non-asymptotic system identification algorithm tha...
Sign-Perturbed Sums (SPS) is a non-asymptotic system identification method that can construct confid...
Sign-Perturbed Sums (SPS) is a non-asymptotic system identification method that can construct confid...
Abstract—We propose a new system identification method, called Sign- Perturbed Sums (SPS), for const...
We propose a new system identification method, called Sign - Perturbed Sums (SPS), for constructing ...
Sign-Perturbed-Sums (SPS) is a system identification algorithm that, under mild assumptions on the d...
Abstract We propose a new finite sample system identification method, called Sign-Perturbed Sums (SP...
Sign-Perturbed Sums (SPS) is a system identification method that constructs non-asymptotic confidenc...
We propose a generalization of the recently developed system identification method called Sign-Pertu...
In this paper we propose an algorithm for constructing non-asymptotic confidence regions for paramet...
Abstract—Recently, a new finite-sample system identification algorithm, called Sign-Perturbed Sums (...
Abstract — In this paper we propose an algorithm for con-structing non-asymptotic confidence regions...
In 2005, with the publication of the LSCR algorithm (Leave-out Sign-dominant Correlation Regions), a...