WOLFRAM SYSTEM MODELER
PumpModel of a pump with fixed displacement and volumes |
SystemModel["Hydraulic.PumpsAndMotors.Pump"]
: | Mass flow rate | ||
: | Fluid density | ||
D | : | Displacement | |
: | Pressure difference between the ports | ||
: | Torque | ||
: | Angular velocity |
medium |
Value: Oil() Type: Medium Description: Medium in the component |
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D |
Value: Type: Volume (m³) Description: Displacement per revolution |
externalLeakage |
Value: 1e-12 Type: PressureDependentLeakage (m³/(s⋅Pa)) Description: Leakage between cylinders |
internalLeakage |
Value: 1e-12 Type: PressureDependentLeakage (m³/(s⋅Pa)) Description: Leakage between cylinders |
frictionD |
Value: 1 Type: RotationalDampingConstant (N⋅m⋅s/rad) Description: Viscous friction |
J |
Value: 1 Type: MomentOfInertia (kg⋅m²) Description: Moments of inertia |
tankPressure |
Value: 100000.0 Type: Pressure (Pa) Description: Tank pressure |
V |
Value: 0.0001 Type: Volume (m³) Description: Volume |
medium |
Type: Medium Description: Medium in the component |
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volume_b |
Type: Volume Description: Fixed volume with fluid storage |
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volume_a |
Type: Volume Description: Fixed volume with fluid storage |
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inertia |
Type: Inertia Description: 1D-rotational component with inertia |
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friction |
Type: Damper Description: Linear 1D rotational damper |
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pumpMotorVariable |
Type: BasicDisplacementMachine Description: Model of a pump/motor with variable displacement and no volumes |
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externalLeakage_b |
Type: RestrictionLaminar Description: Laminar restriction using conductance |
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tank_b |
Type: Tank Description: Simple tank with constant pressure |
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tank_a |
Type: Tank Description: Simple tank with constant pressure |
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externalLeakage_a |
Type: RestrictionLaminar Description: Laminar restriction using conductance |
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internalLeakage_ab |
Type: RestrictionLaminar Description: Laminar restriction using conductance |
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fixed1 |
Type: Fixed Description: Flange fixed in housing at a given angle |
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const |
Type: Constant Description: Generate constant signal of type Real |
Hydraulic.Examples.Accumulators Example circuit with two tanks connected in series |
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Hydraulic.Examples.Accumulators Example circuit with an unloading relief valve and an accumulator |
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Hydraulic.Examples.Accumulators Example circuit with automatic discharge of an accumulator |
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Hydraulic.Examples.Accumulators Example circuit with an accumulator and cylinder |
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Hydraulic.Examples.FlowControl Example circuit with meter-in flow control |
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Hydraulic.Examples.FlowControl Example circuit with meter-out flow control |
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Hydraulic.Examples.FlowControl Example circuit with bleed-off flow control |
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Hydraulic.Examples.MultipleActuators Example circuit with a sub-circuit operating at a reduced pressure |
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Hydraulic.Examples.MultipleActuators Example circuit with two cylinders working in a sequence |
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Hydraulic.Examples.MultipleActuators Example circuit with two cylinders working in a sequence |
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Hydraulic.Examples.Rotation Example circuit with a pump that unloads to a reservoir when inactive |
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Hydraulic.Examples.Rotation Example circuit with a brake valve |
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Hydraulic.Examples.Translation Example circuit of a cylinder moving a load |
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Hydraulic.Examples.Translation Example circuit of a cylinder moving a load with the help of a simple controller |
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Hydraulic.Examples.Translation Example circuit of a cylinder moving a load |
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Hydraulic.Examples.Translation Example circuit of a cylinder lifting and holding a mass |
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Hydraulic.Examples.Filter Example of a hydraulic system using filters |