Enable JavaScript to interact with content and submit forms on Wolfram websites. Learn how

WOLFRAM SYSTEM MODELER

Force

Class that can apply forces along x, y and z axes with a defined interval and amplitude

Diagram

Wolfram Language

In[1]:=

SystemModel["RotatingMachinery.Sources.Force"]

Out[1]:=

Information

Static Force

Component that can add forces in all three directions, x, y and z. The forces can be individually controlled in time interval and amplitude, defined by ramp signals. To stop applying a force, the step signal in the desired direction is activated, multiplying the force amplitude by zero.

Parameters (6)

height	Value: {0, 0, 0} Type: Real[3] Description: Amplitude of the force applied in x,y,z direction
start	Value: {0, 0, 0} Type: Real[3] Description: Time when to start applying a force in x,y,z direction
duration	Value: {0, 0, 0} Type: Real[3] Description: Duration of the ramp in x,y,z direciton
offset	Value: {0, 0, 0} Type: Real[3] Description: Offset of amplitude in x,y,z direction
stop	Value: {inf, inf, inf} Type: Real[3] Description: Time when to set force in x,y,z direction to zero
animation	Value: true Type: Boolean Description: = true, if animation of force arrow should be enabled

Connectors (1)

	frame_b	Type: Frame_b Description: Coordinate system fixed to the component with one cut-force and cut-torque (non-filled rectangular icon)

frame_b

Type: Frame_b

Description: Coordinate system fixed to the component with one cut-force and cut-torque (non-filled rectangular icon)

Components (11)

	force_Static	Type: WorldForce Description: External force acting at frame_b, defined by 3 input signals and resolved in frame world, frame_b or frame_resolve
	rampx	Type: Ramp Description: Generate ramp signal
	rampy	Type: Ramp Description: Generate ramp signal
	rampz	Type: Ramp Description: Generate ramp signal
	stepx	Type: Step Description: Generate step signal of type Real
	stepy	Type: Step Description: Generate step signal of type Real
	stepz	Type: Step Description: Generate step signal of type Real
	productx	Type: Product Description: Output product of the two inputs
	producty	Type: Product Description: Output product of the two inputs
	productz	Type: Product Description: Output product of the two inputs
	world	Type: World Description: World coordinate system + gravity field + default animation definition

Used in Examples (9)

	BearingRollerForces RotatingMachinery.Examples.BearingAnalysis Study of individual roller forces
	ShaftWithLoad RotatingMachinery.Examples.BearingAnalysis Two roller bearings' responses under a loaded shaft
	ShaftOnFlexibleSeatings RotatingMachinery.Examples.BearingAnalysis Two roller bearings on flexible supports
	BearingComparison RotatingMachinery.Examples.BearingAnalysis Comparison bearings from a selection list
	BearingRollerForcesSimplified RotatingMachinery.Examples.BearingAnalysis Study of individual roller forces
	BackwardWhirling RotatingMachinery.Examples.StabilityAnalysis Finding whirling frequencies of a rotating shaft: Part II
	InternalDamping RotatingMachinery.Examples.JeffcottRotorDamping Determine shaft damping
	CarAxle RotatingMachinery.Examples.Shafts Inspection of an axle's vibrations
	CarAxleOnTires RotatingMachinery.Examples.Shafts Inspection of a car axle deflection on tires