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    SYSTEM IDENTIFICATION with MATLAB. Non Linear Models, ODEs and Time Series

    Posted By: AlenMiler
    SYSTEM IDENTIFICATION with MATLAB. Non Linear Models, ODEs and Time Series

    SYSTEM IDENTIFICATION with MATLAB. Non Linear Models, ODEs and Time Series by Marvin L.
    English | 23 Oct. 2016 | ISBN: 1539692310 | 207 Pages | PDF | 1.84 MB

    In System Identification Toolbox software, MATLAB represents linear systems as model objects. Model objects are specialized data containers that encapsulate model data and other attributes in a structured way. Model objects allow you to manipulate linear systems as single entities rather than keeping track of multiple data vectors, matrices, or cell arrays. Model objects can represent single-input, single-output (SISO) systems or multiple-input, multiple-output (MIMO) systems. You can represent both continuous- and discrete-time linear systems. Thisb book develops de next task with models:

    Nonlinear Black-Box Model Identification
    Nonlinear Model Identification
    Fit Nonlinear Models
    Identifying Nonlinear ARX Models
    Nonlinearity Estimators for Nonlinear ARX Models
    Estimate Nonlinear ARX Models in the GUI
    Estimate Nonlinear ARX Models at the Command Line
    Validating Nonlinear ARX Models
    Identifying Hammerstein-Wiener Models
    Nonlinearity Estimators for Hammerstein-Wiener Models
    Estimation Algorithm for Hammerstein-Wiener Models
    Validating Hammerstein-Wiener Models
    Linear Approximation of Nonlinear Black-Box Models
    ODE Parameter Estimation (Grey-Box Modeling)
    Estimating Linear Grey-Box Models
    Estimating Nonlinear Grey-Box Models
    After Estimating Grey-Box Models
    Estimating Coefficients of ODEs to Fit Given Solution
    Estimate Model Using Zero/Pole/Gain Parameters
    Time Series Identification
    Estimating Time-Series Power Spectra
    Estimate Time-Series Power Spectra Using the GUI
    Estimate Time-Series Power Spectra at the Command Line
    Estimating AR and ARMA Models
    Estimating Polynomial Time-Series Models in the GUI
    Estimating AR and ARMA Models at the Command Line
    Estimating State-Space Time-Series Models
    Estimating State-Space Models at the Command Line
    Identify Time-Series Models at Command Line
    Estimating Nonlinear Models for Time-Series Data
    Estimating ARIMA Models
    Analyzing of Time-Series Models
    Recursive Model Identification
    General Form of Recursive Estimation Algorithm
    Kalman Filter Algorithm
    Recursive Estimation and Data Segmentation
    Techniques in System Identification Toolbox
    Model Analysis
    Validating Models After Estimation
    Plotting Models in the GUI
    Simulating and Predicting Model Output
    Simulation and Prediction in the GUI
    Simulation and Prediction at the Command Line
    Predict Using Time-Series Model
    Residual Analysis
    Impulse and Step Response Plots
    Frequency Response Plots
    Displaying the Confidence Interval
    Noise Spectrum Plots
    Pole and Zero Plots
    Analyzing MIMO Models
    Akaike’s Criteria for Model Validation
    Troubleshooting Models
    Unstable Models
    Missing Input Variables
    Complicated Nonlinearities
    Spectrum Estimation Using Complex Data
    System Identification Toolbox Blocks
    Using System Identification Toolbox Blocks in Simulink Models
    Identifying Linear Models
    Simulating Identified Model Output in Simulink
    Simulate Identified Model Using Simulink Software
    System Identification Tool GUI