CD Divide Models VI

Owning Palette: Model Interconnection VIs

Requires: Control Design and Simulation Module

Divides a linear model by a constant gain. This operation is equivalent to multiplying the model by the inverse of the gain. Therefore, if this VI cannot calculate the inverse of gain, LabVIEW returns an error. You also can divide two models by one another. In this situation, both models either must be continuous-time models or must have the same sampling time if they are discrete-time models. Wire data to the Model 1 and Gain inputs to determine the polymorphic instance to use or manually select the instance.

Details  

CD Divide Models (State-Space by Gain)

	Model 1 specifies the model that is the dividend.
	Gain specifies the gain that is the divisor.
	error in describes error conditions that occur before this node runs. This input provides standard error in functionality.
	Model Out returns the model this VI produces. When the two input models are not of the same model type, the following model hierarchy determines the model type of the resulting model: state-space>transfer function>zero-pole-gain. For example, if one input is a state-space model and the other is a zero-pole-gain model, the resulting model is a state-space model. To access and modify the data in the model, use the Model Information VIs.
	error out contains error information. This output provides standard error out functionality.

CD Divide Models (Gain by State-Space)

	Gain specifies the gain that is the dividend.
	Model 2 specifies the model that is the divisor.
	error in describes error conditions that occur before this node runs. This input provides standard error in functionality.
	Model Out returns the model this VI produces. When the two input models are not of the same model type, the following model hierarchy determines the model type of the resulting model: state-space>transfer function>zero-pole-gain. For example, if one input is a state-space model and the other is a zero-pole-gain model, the resulting model is a state-space model. To access and modify the data in the model, use the Model Information VIs.
	error out contains error information. This output provides standard error out functionality.

CD Divide Models (Transfer Function by Gain)

	Model 1 specifies the model that is the dividend.
	Gain specifies the gain that is the divisor.
	error in describes error conditions that occur before this node runs. This input provides standard error in functionality.
	Model Out returns the model this VI produces. When the two input models are not of the same model type, the following model hierarchy determines the model type of the resulting model: state-space>transfer function>zero-pole-gain. For example, if one input is a state-space model and the other is a zero-pole-gain model, the resulting model is a state-space model. To access and modify the data in the model, use the Model Information VIs.
	error out contains error information. This output provides standard error out functionality.

CD Divide Models (Gain by Transfer Function)

	Gain specifies the gain that is the dividend.
	Model 2 specifies the model that is the divisor.
	error in describes error conditions that occur before this node runs. This input provides standard error in functionality.
	Model Out returns the model this VI produces. When the two input models are not of the same model type, the following model hierarchy determines the model type of the resulting model: state-space>transfer function>zero-pole-gain. For example, if one input is a state-space model and the other is a zero-pole-gain model, the resulting model is a state-space model. To access and modify the data in the model, use the Model Information VIs.
	error out contains error information. This output provides standard error out functionality.

CD Divide Models (Zero-Pole-Gain by Gain)

	Model 1 specifies the model that is the dividend.
	Gain specifies the gain that is the divisor.
	error in describes error conditions that occur before this node runs. This input provides standard error in functionality.
	Model Out returns the model this VI produces. When the two input models are not of the same model type, the following model hierarchy determines the model type of the resulting model: state-space>transfer function>zero-pole-gain. For example, if one input is a state-space model and the other is a zero-pole-gain model, the resulting model is a state-space model. To access and modify the data in the model, use the Model Information VIs.
	error out contains error information. This output provides standard error out functionality.

CD Divide Models (Gain by Zero-Pole-Gain)

	Gain specifies the gain that is the dividend.
	Model 2 specifies the model that is the divisor.
	error in describes error conditions that occur before this node runs. This input provides standard error in functionality.
	Model Out returns the model this VI produces. When the two input models are not of the same model type, the following model hierarchy determines the model type of the resulting model: state-space>transfer function>zero-pole-gain. For example, if one input is a state-space model and the other is a zero-pole-gain model, the resulting model is a state-space model. To access and modify the data in the model, use the Model Information VIs.
	error out contains error information. This output provides standard error out functionality.

CD Divide Models (State-Space by State-Space)

	Model 1 specifies the model that is the dividend.
	Model 2 specifies the model that is the divisor.
	error in describes error conditions that occur before this node runs. This input provides standard error in functionality.
	Model Out returns the model this VI produces. When the two input models are not of the same model type, the following model hierarchy determines the model type of the resulting model: state-space>transfer function>zero-pole-gain. For example, if one input is a state-space model and the other is a zero-pole-gain model, the resulting model is a state-space model. To access and modify the data in the model, use the Model Information VIs.
	error out contains error information. This output provides standard error out functionality.

CD Divide Models (Transfer Function by Transfer Function)

	Model 1 specifies the model that is the dividend.
	Model 2 specifies the model that is the divisor.
	error in describes error conditions that occur before this node runs. This input provides standard error in functionality.
	Model Out returns the model this VI produces. When the two input models are not of the same model type, the following model hierarchy determines the model type of the resulting model: state-space>transfer function>zero-pole-gain. For example, if one input is a state-space model and the other is a zero-pole-gain model, the resulting model is a state-space model. To access and modify the data in the model, use the Model Information VIs.
	error out contains error information. This output provides standard error out functionality.

CD Divide Models (Zero-Pole-Gain by Zero-Pole-Gain)

	Model 1 specifies the model that is the dividend.
	Model 2 specifies the model that is the divisor.
	error in describes error conditions that occur before this node runs. This input provides standard error in functionality.
	Model Out returns the model this VI produces. When the two input models are not of the same model type, the following model hierarchy determines the model type of the resulting model: state-space>transfer function>zero-pole-gain. For example, if one input is a state-space model and the other is a zero-pole-gain model, the resulting model is a state-space model. To access and modify the data in the model, use the Model Information VIs.
	error out contains error information. This output provides standard error out functionality.

CD Divide Models Details

This VI might convert one or both input models to different forms before connecting the models. Refer to the LabVIEW Control Design User Manual for more information about appending models.

This VI supports delays. This VI transfers the delay information from the input models to the augmented model. Refer to the LabVIEW Control Design User Manual for more information about delays.