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

WOLFRAM SYSTEM MODELER

ClampedDriveEnd

Component that can act as a clamped drive end to a beam, containing different options

Diagram

Wolfram Language

In[1]:=

SystemModel["RotatingMachinery.Supports.ClampedDriveEnd"]

Out[1]:=

Information

Clamped Drive End Support

This component acts as support to a beam/shaft. Depending on the settings of the parameters, the support will act as a clamped support with a built-in fixed point or a clamped support that connects to another frame (activated by setting useFlangeSupport to true). The default setting is a clamped support with a built-in fixed point.

Figure 1: Clamped support parameters tab.

A clamped support only enables rotation around the beam axis (z axis). If a translational movement in the beam axis should be allowed, use the useFlangeSupport and connect to a prismatic joint that allows for that movement.

References

[1] Schmid, S. R., B. J. Hamrock and Bo. O. Jacobson. Fundamentals of Machine Elements. CRC Press, 2013.

Parameters (6)

useFlangeSupport	Value: Type: Boolean Description: = true, if there is a need to connect to an external flange support
angle	Value: 0 Type: Angle_deg (°) Description: Initial torsional rotation
torsionalDampingConstant	Value: 0 Type: RotationalDampingConstant (N⋅m⋅s/rad) Description: Damping constant
axialPosition	Value: 0 Type: Length (m) Description: Axial position, z direction
horisontalPosition	Value: 0 Type: Length (m) Description: Horisontal position, x direction
verticalPosition	Value: 0 Type: Length (m) Description: Vertical position, y direction

Connectors (2)

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

frame_shaftConnection

Type: Frame_a

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

Components (5)

	fixedRotation1	Type: FixedRotation Description: Fixed translation followed by a fixed rotation of frame_b with respect to frame_a
	fixed1	Type: Fixed Description: Frame fixed in the world frame at a given position
	fixedRotationSupport	Type: FixedRotation Description: Fixed translation followed by a fixed rotation of frame_b with respect to frame_a
	revolute	Type: Revolute Description: Revolute joint (1 rotational degree-of-freedom, 2 potential states, optional axis flange)
	damper	Type: Damper Description: Linear 1D rotational damper

Used in Examples (10)

	ForwardWhirling RotatingMachinery.Examples.StabilityAnalysis Finding whirling frequencies of a rotating shaft: Part I
	BackwardWhirling RotatingMachinery.Examples.StabilityAnalysis Finding whirling frequencies of a rotating shaft: Part II
	PlanetaryGear RotatingMachinery.Examples.Gears.PlanetaryGears A basic planetary gear application; WindTurbine Part I
	ThreeShaftGearbox RotatingMachinery.Examples.Gears.PlanetaryGears Building a three-shaft gearbox; WindTurbine Part II
	WindTurbineGearBox RotatingMachinery.Examples.Gears.PlanetaryGears Assembly of a planetary gear and a three-shafted gearbox; Part I and Part II
	ClampedRotor RotatingMachinery.Examples.ContactAnalysis Study of contact forces between a disk and a housing
	RunningUpFreeRotor RotatingMachinery.Examples.ContactAnalysis Study of a running up clamped free rotor
	NoClearance RotatingMachinery.Examples.ContactAnalysis Inspection of deflection of a free rotor without clearance
	RunningUpRotorClearance RotatingMachinery.Examples.ContactAnalysis Calculation of deflection for a rotor with a surrounding and a clearance
	SlowingRotorClearance RotatingMachinery.Examples.ContactAnalysis Application of a running down rotor deflection with a clearance