Component: Simulated Control Load (DSP Operators)

Author	Matrix Ltd
Version	1.2
Category	DSP Operators

Simulated Control Load component

Allows a simulated load to be connected to the DSP network allowing you to model external factors such as Motor Speed, Motor Position, Temperature, Humidity, Pressure, Flow etc. Useful when used with a feedback based control system.

Component Source Code

Please click here to download the component source project: FC_Comp_Source_DSP_SimLoad.fcfx

Please click here to view the component source code (Beta): FC_Comp_Source_DSP_SimLoad.fcfx

Detailed description

No detailed description exists yet for this component

Examples

No additional examples

Macro reference

	SimulateLoadArray
Passes an entire buffer into the delay buffer and spits out a delayed version of the buffer at the other end
- VOID	Return

	SimulateLoad
Simulates a load change with a new control value being applied and a new feedback signal gathered from the output.
- VOID	Return

Property reference

	Properties
	Connect To
DSP component with output buffer to collect our data from.
	Buffer Size
Number of individual elements the buffer can store, default 1.
	Buffer Type
Sets the buffer data type.
	Direction
Sets the data direction flow of the component
	Load
	Model Type
	Model Order
The order of a differential equation is the highest degree of derivative present in that equation. A system whose input-output equation is a second order differential equation is called Second Order System.
	1st Order
Determines to the response of the syecific order within the system. Output = (OldOutput * (1 - Order)) + (NewInput * Order)
	2nd Order
Determines to the response of the syecific order within the system. Output = (OldOutput * (1 - Order)) + (NewInput * Order)
	Initial Output

==Macro reference==

	SimulateLoadArray
Passes an entire buffer into the delay buffer and spits out a delayed version of the buffer at the other end
- VOID	Return

	SimulateLoad
Simulates a load change with a new control value being applied and a new feedback signal gathered from the output.
- VOID	Return

Property reference

	Properties
	Connect To
DSP component with output buffer to collect our data from.
	Buffer Size
Number of individual elements the buffer can store, default 1.
	Buffer Type
Sets the buffer data type.
	Direction
Sets the data direction flow of the component
	Load
	Model Type
	Model Order
The order of a differential equation is the highest degree of derivative present in that equation. A system whose input-output equation is a second order differential equation is called Second Order System.
	1st Order
Determines to the response of the syecific order within the system. Output = (OldOutput * (1 - Order)) + (NewInput * Order)
	2nd Order
Determines to the response of the syecific order within the system. Output = (OldOutput * (1 - Order)) + (NewInput * Order)
	Initial Output

==Macro reference==

	SimulateLoadArray
Passes an entire buffer into the delay buffer and spits out a delayed version of the buffer at the other end
- VOID	Return

	SimulateLoad
Simulates a load change with a new control value being applied and a new feedback signal gathered from the output.
- VOID	Return

Property reference

	Properties
	Connect To
DSP component with output buffer to collect our data from.
	Buffer Size
Number of individual elements the buffer can store, default 1.
	Buffer Type
Sets the buffer data type.
	Direction
Sets the data direction flow of the component
	Load
	Model Type
	Model Order
The order of a differential equation is the highest degree of derivative present in that equation. A system whose input-output equation is a second order differential equation is called Second Order System.
	1st Order
Determines to the response of the syecific order within the system. Output = (OldOutput * (1 - Order)) + (NewInput * Order)
	2nd Order
Determines to the response of the syecific order within the system. Output = (OldOutput * (1 - Order)) + (NewInput * Order)
	Initial Output