State-Space
Creates a single-input single-output (SISO) state-space model of a system using Matrix A, Matrix B, Matrix C, Matrix D, and the Sampling Time (s). This step also can produce a state-space model in which you can specify the data in symbolic form.
Parameter | Description |
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Name | Specifies the name of the model you create. |
Inputs | Displays the number of inputs in the system model. |
States | Displays the number of states in the system model. |
Outputs | Displays the number of outputs in the system model. |
Model Type | Specifies the type of model you create. Contains the following options:
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Symbolic Coefficients | Specifies that you can use variables to define the model. Define the variable name and the value that the variable represents in the left and right columns, respectively, that appear in the Symbolic coefficients section.
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Matrix A | Defines the system matrix that describes the dynamics of the states of the system. |
Matrix B | Defines the input matrix that relates the inputs to the states of the system. |
Matrix C | Defines the output matrix that relates the outputs to the state of the system. |
Matrix D | Defines the transmission matrix that relates the inputs to the outputs of the systems. |
Generate Random Model | Generates a random model. |
State-Space Details
The state-space model is defined by the following equations:
Continuous | |
Discrete |
where k is the sampling time,
n is the number of states,
m is the number of inputs,
r is the number of outputs,
x is the state vector,
u is the input vector,
y is the output vector,
A is an n × n state matrix of the given system,
B is an n × m input matrix of the given system,
C is an r × n input matrix of the given system,
and D is an r × m input matrix of the given system.