Information

This information is part of the Modelica Standard Library maintained by the Modelica Association.

Linear, velocity dependent damper element. It can be either connected between a sliding mass and the housing (model Fixed), or between two sliding masses.

Parameters (4)

stateSelect	Value: StateSelect.prefer Type: StateSelect Description: Priority to use s_rel and v_rel as states
s_nominal	Value: 1e-4 Type: Distance (m) Description: Nominal value of s_rel (used for scaling)
useHeatPort	Value: false Type: Boolean Description: = true, if heatPort is enabled
d	Value: Type: TranslationalDampingConstant (N·s/m) Description: Damping constant

Connectors (3)

	flange_a	Type: Flange_a Description: (left) driving flange (flange axis directed into cut plane, e. g. from left to right)
	flange_b	Type: Flange_b Description: (right) driven flange (flange axis directed out of cut plane)
	heatPort	Type: HeatPort_a Description: Optional port to which dissipated losses are transported in form of heat

flange_a

Type: Flange_a

Description: (left) driving flange (flange axis directed into cut plane, e. g. from left to right)

flange_b

Type: Flange_b

Description: (right) driven flange (flange axis directed out of cut plane)

heatPort

Type: HeatPort_a

Description: Optional port to which dissipated losses are transported in form of heat

Used in Examples (5)

	LineForceWithTwoMasses Modelica.Mechanics.MultiBody.Examples.Elementary Demonstrate line force with two point masses using a JointUPS and alternatively a LineForceWithTwoMasses component
	Damper Modelica.Mechanics.Translational.Examples Use of damper models
	Oscillator Modelica.Mechanics.Translational.Examples Oscillator demonstrates the use of initial conditions
	PreLoad Modelica.Mechanics.Translational.Examples Preload of a spool using ElastoGap models
	HeatLosses Modelica.Mechanics.Translational.Examples Demonstrate the modeling of heat losses