The following document contains the results of PMD's CPD 5.1.2.
| File | Line |
|---|---|
| org\opentrafficsim\core\gtu2\RelativePosition.java | 19 |
| org\opentrafficsim\core\gtu\RelativePosition.java | 19 |
public class RelativePosition implements Serializable, OTS_SCALAR
{
/** */
private static final long serialVersionUID = 20141231L;
/** positive x is in the normal direction of movement. */
private final Length.Rel dx;
/** positive y is left compared to the normal direction of movement (seen from the top). */
private final Length.Rel dy;
/** positive z is up. */
private final Length.Rel dz;
/** type of relative position (FRONT, BACK, etc.). */
private final TYPE type;
/** Standard relative position type FRONT. */
public static final TYPE FRONT = new TYPE("FRONT");
/** Standard relative position type BACK. */
public static final TYPE REAR = new TYPE("REAR");
/** Standard relative position type CENTER. */
public static final TYPE CENTER = new TYPE("CENTER");
/** Standard relative position type REFERENCE. */
public static final TYPE REFERENCE = new TYPE("REFERENCE");
/** Standard relative position type DRIVER. */
public static final TYPE DRIVER = new TYPE("DRIVER");
/** the reference position (always 0, 0, 0). */
public static final RelativePosition REFERENCE_POSITION = new RelativePosition(new Length.Rel(0.0d, METER),
new Length.Rel(0.0d, METER), new Length.Rel(0.0d, METER), RelativePosition.REFERENCE);
/**
* @param dx positive x is in the normal direction of movement.
* @param dy positive y is left compared to the normal direction of movement (seen from the top).
* @param dz positive z is up.
* @param type type of relative position (FRONT, BACK, etc.).
*/
public RelativePosition(final Length.Rel dx, final Length.Rel dy, final Length.Rel dz, final TYPE type)
{
super();
this.dx = dx;
this.dy = dy;
this.dz = dz;
this.type = type;
}
/**
* @param p a relative position to make a deep copy of.
*/
public RelativePosition(final RelativePosition p)
{
super();
this.dx = p.getDx();
this.dy = p.getDy();
this.dz = p.getDz();
this.type = p.getType();
}
/**
* @return dx.
*/
public final Length.Rel getDx()
{
return this.dx;
}
/**
* @return dy.
*/
public final Length.Rel getDy()
{
return this.dy;
}
/**
* @return dz.
*/
public final Length.Rel getDz()
{
return this.dz;
}
/**
* @return type.
*/
public final TYPE getType()
{
return this.type;
}
/** {@inheritDoc} */
@Override
public final String toString()
{
return "(" + this.dx + ", " + this.dy + ", " + this.dz + "): " + this.type;
}
/** {@inheritDoc} */
@Override
@SuppressWarnings("checkstyle:designforextension")
public int hashCode()
{
final int prime = 31;
int result = 1;
result = prime * result + ((this.dx == null) ? 0 : this.dx.hashCode());
result = prime * result + ((this.dy == null) ? 0 : this.dy.hashCode());
result = prime * result + ((this.dz == null) ? 0 : this.dz.hashCode());
result = prime * result + ((this.type == null) ? 0 : this.type.hashCode());
return result;
}
/** {@inheritDoc} */
@Override
@SuppressWarnings({"checkstyle:designforextension", "checkstyle:needbraces"})
public boolean equals(final Object obj)
{
if (this == obj)
return true;
if (obj == null)
return false;
if (getClass() != obj.getClass())
return false;
RelativePosition other = (RelativePosition) obj;
if (this.dx == null)
{
if (other.dx != null)
return false;
}
else if (!this.dx.equals(other.dx))
return false;
if (this.dy == null)
{
if (other.dy != null)
return false;
}
else if (!this.dy.equals(other.dy))
return false;
if (this.dz == null)
{
if (other.dz != null)
return false;
}
else if (!this.dz.equals(other.dz))
return false;
if (this.type == null)
{
if (other.type != null)
return false;
}
else if (!this.type.equals(other.type))
return false;
return true;
}
/**
* The type of relative position, e.g., Front, Back, etc.
* <p>
* Copyright (c) 2013-2015 Delft University of Technology, PO Box 5, 2600 AA, Delft, the Netherlands. <br>
* All rights reserved. <br>
* BSD-style license. See <a href="http://opentrafficsim.org/docs/license.html">OpenTrafficSim License</a>.
* <p>
* $LastChangedDate: 2015-07-28 17:11:47 +0200 (Tue, 28 Jul 2015) $, @version $Revision: 1165 $, by $Author: averbraeck $,
* initial version ec 31, 2014 <br>
* @author <a href="http://www.tbm.tudelft.nl/averbraeck">Alexander Verbraeck</a>
* @author <a href="http://www.tudelft.nl/pknoppers">Peter Knoppers</a>
*/
public static class TYPE implements Serializable
{
/** */
private static final long serialVersionUID = 20141231L;
/** the type name. */
private final String name;
/**
* @param name the type name.
*/
public TYPE(final String name)
{
super();
this.name = name;
}
/**
* @return name.
*/
public final String getName()
{
return this.name;
}
/** {@inheritDoc} */
@Override
public final String toString()
{
return this.name;
}
/** {@inheritDoc} */
@Override
@SuppressWarnings("checkstyle:designforextension")
public int hashCode()
{
final int prime = 31;
int result = 1;
result = prime * result + ((this.name == null) ? 0 : this.name.hashCode());
return result;
}
/** {@inheritDoc} */
@Override
@SuppressWarnings({"checkstyle:designforextension", "checkstyle:needbraces"})
public boolean equals(final Object obj)
{
if (this == obj)
return true;
if (obj == null)
return false;
if (getClass() != obj.getClass())
return false;
TYPE other = (TYPE) obj;
if (this.name == null)
{
if (other.name != null)
return false;
}
else if (!this.name.equals(other.name))
return false;
return true;
}
}
} | |
| File | Line |
|---|---|
| org\opentrafficsim\core\units\distributions\ContinuousDistFloatScalar.java | 68 |
| org\opentrafficsim\core\units\distributions\DiscreteDistFloatScalar.java | 68 |
public Abs(final float constant, final U unit)
{
super(constant, unit);
}
/**
* @return a drawn number from the distribution in the given unit.
*/
@SuppressWarnings({"unchecked", "rawtypes"})
public final T draw()
{
switch (getUnit().getClass().getSimpleName())
{
case "AccelerationUnit":
return (T) new Acceleration.Abs((float) getDistribution().draw(), (AccelerationUnit) getUnit());
case "AnglePlaneUnit":
return (T) new AnglePlane.Abs((float) getDistribution().draw(), (AnglePlaneUnit) getUnit());
case "AngleSlopeUnit":
return (T) new AngleSlope.Abs((float) getDistribution().draw(), (AngleSlopeUnit) getUnit());
case "AngleSolidUnit":
return (T) new AngleSolid.Abs((float) getDistribution().draw(), (AngleSolidUnit) getUnit());
case "AreaUnit":
return (T) new Area.Abs((float) getDistribution().draw(), (AreaUnit) getUnit());
case "DensityUnit":
return (T) new Density.Abs((float) getDistribution().draw(), (DensityUnit) getUnit());
case "DimensionlessUnit":
return (T) new Dimensionless.Abs((float) getDistribution().draw(), (DimensionlessUnit) getUnit());
case "ElectricalChargeUnit":
return (T) new ElectricalCharge.Abs((float) getDistribution().draw(), (ElectricalChargeUnit) getUnit());
case "ElectricalCurrentUnit":
return (T) new ElectricalCurrent.Abs((float) getDistribution().draw(), (ElectricalCurrentUnit) getUnit());
case "ElectricalPotentialUnit":
return (T) new ElectricalPotential.Abs((float) getDistribution().draw(),
(ElectricalPotentialUnit) getUnit());
case "ElectricalResistanceUnit":
return (T) new ElectricalResistance.Abs((float) getDistribution().draw(),
(ElectricalResistanceUnit) getUnit());
case "EnergyUnit":
return (T) new Energy.Abs((float) getDistribution().draw(), (EnergyUnit) getUnit());
case "FlowMassUnit":
return (T) new FlowMass.Abs((float) getDistribution().draw(), (FlowMassUnit) getUnit());
case "FlowVolumeUnit":
return (T) new FlowVolume.Abs((float) getDistribution().draw(), (FlowVolumeUnit) getUnit());
case "ForceUnit":
return (T) new Force.Abs((float) getDistribution().draw(), (ForceUnit) getUnit());
case "FrequencyUnit":
return (T) new Frequency.Abs((float) getDistribution().draw(), (FrequencyUnit) getUnit());
case "LengthUnit":
return (T) new Length.Abs((float) getDistribution().draw(), (LengthUnit) getUnit());
case "LinearDensityUnit":
return (T) new LinearDensity.Abs((float) getDistribution().draw(), (LinearDensityUnit) getUnit());
case "MassUnit":
return (T) new Mass.Abs((float) getDistribution().draw(), (MassUnit) getUnit());
case "PowerUnit":
return (T) new Power.Abs((float) getDistribution().draw(), (PowerUnit) getUnit());
case "PressureUnit":
return (T) new Pressure.Abs((float) getDistribution().draw(), (PressureUnit) getUnit());
case "SpeedUnit":
return (T) new Speed.Abs((float) getDistribution().draw(), (SpeedUnit) getUnit());
case "TemperatureUnit":
return (T) new Temperature.Abs((float) getDistribution().draw(), (TemperatureUnit) getUnit());
case "TimeUnit":
return (T) new Time.Abs((float) getDistribution().draw(), (TimeUnit) getUnit());
case "TorqueUnit":
return (T) new Torque.Abs((float) getDistribution().draw(), (TorqueUnit) getUnit());
case "VolumeUnit":
return (T) new Volume.Abs((float) getDistribution().draw(), (VolumeUnit) getUnit());
default:
return (T) new FloatScalar.Abs((float) getDistribution().draw(), getUnit()); | |
| File | Line |
|---|---|
| org\opentrafficsim\core\units\distributions\ContinuousDistFloatScalar.java | 188 |
| org\opentrafficsim\core\units\distributions\DiscreteDistFloatScalar.java | 188 |
public Rel(final float constant, final U unit)
{
super(constant, unit);
}
/**
* @return a drawn number from the distribution in the given unit.
*/
@SuppressWarnings({"unchecked", "rawtypes"})
public final T draw()
{
switch (getUnit().getClass().getSimpleName())
{
case "AccelerationUnit":
return (T) new Acceleration.Rel((float) getDistribution().draw(), (AccelerationUnit) getUnit());
case "AnglePlaneUnit":
return (T) new AnglePlane.Rel((float) getDistribution().draw(), (AnglePlaneUnit) getUnit());
case "AngleSlopeUnit":
return (T) new AngleSlope.Rel((float) getDistribution().draw(), (AngleSlopeUnit) getUnit());
case "AngleSolidUnit":
return (T) new AngleSolid.Rel((float) getDistribution().draw(), (AngleSolidUnit) getUnit());
case "AreaUnit":
return (T) new Area.Rel((float) getDistribution().draw(), (AreaUnit) getUnit());
case "DensityUnit":
return (T) new Density.Rel((float) getDistribution().draw(), (DensityUnit) getUnit());
case "DimensionlessUnit":
return (T) new Dimensionless.Rel((float) getDistribution().draw(), (DimensionlessUnit) getUnit());
case "ElectricalChargeUnit":
return (T) new ElectricalCharge.Rel((float) getDistribution().draw(), (ElectricalChargeUnit) getUnit());
case "ElectricalCurrentUnit":
return (T) new ElectricalCurrent.Rel((float) getDistribution().draw(), (ElectricalCurrentUnit) getUnit());
case "ElectricalPotentialUnit":
return (T) new ElectricalPotential.Rel((float) getDistribution().draw(),
(ElectricalPotentialUnit) getUnit());
case "ElectricalResistanceUnit":
return (T) new ElectricalResistance.Rel((float) getDistribution().draw(),
(ElectricalResistanceUnit) getUnit());
case "EnergyUnit":
return (T) new Energy.Rel((float) getDistribution().draw(), (EnergyUnit) getUnit());
case "FlowMassUnit":
return (T) new FlowMass.Rel((float) getDistribution().draw(), (FlowMassUnit) getUnit());
case "FlowVolumeUnit":
return (T) new FlowVolume.Rel((float) getDistribution().draw(), (FlowVolumeUnit) getUnit());
case "ForceUnit":
return (T) new Force.Rel((float) getDistribution().draw(), (ForceUnit) getUnit());
case "FrequencyUnit":
return (T) new Frequency.Rel((float) getDistribution().draw(), (FrequencyUnit) getUnit());
case "LengthUnit":
return (T) new Length.Rel((float) getDistribution().draw(), (LengthUnit) getUnit());
case "LinearDensityUnit":
return (T) new LinearDensity.Rel((float) getDistribution().draw(), (LinearDensityUnit) getUnit());
case "MassUnit":
return (T) new Mass.Rel((float) getDistribution().draw(), (MassUnit) getUnit());
case "PowerUnit":
return (T) new Power.Rel((float) getDistribution().draw(), (PowerUnit) getUnit());
case "PressureUnit":
return (T) new Pressure.Rel((float) getDistribution().draw(), (PressureUnit) getUnit());
case "SpeedUnit":
return (T) new Speed.Rel((float) getDistribution().draw(), (SpeedUnit) getUnit());
case "TemperatureUnit":
return (T) new Temperature.Rel((float) getDistribution().draw(), (TemperatureUnit) getUnit());
case "TimeUnit":
return (T) new Time.Rel((float) getDistribution().draw(), (TimeUnit) getUnit());
case "TorqueUnit":
return (T) new Torque.Rel((float) getDistribution().draw(), (TorqueUnit) getUnit());
case "VolumeUnit":
return (T) new Volume.Rel((float) getDistribution().draw(), (VolumeUnit) getUnit());
default:
return (T) new FloatScalar.Rel((float) getDistribution().draw(), getUnit()); | |
| File | Line |
|---|---|
| org\opentrafficsim\core\units\distributions\ContinuousDistDoubleScalar.java | 68 |
| org\opentrafficsim\core\units\distributions\DiscreteDistDoubleScalar.java | 94 |
public Abs(final double constant, final U unit)
{
super(constant, unit);
}
/**
* @return a drawn number from the distribution in the given unit.
*/
@SuppressWarnings({"unchecked", "rawtypes"})
public final T draw()
{
switch (getUnit().getClass().getSimpleName())
{
case "AccelerationUnit":
return (T) new Acceleration.Abs(getDistribution().draw(), (AccelerationUnit) getUnit());
case "AnglePlaneUnit":
return (T) new AnglePlane.Abs(getDistribution().draw(), (AnglePlaneUnit) getUnit());
case "AngleSlopeUnit":
return (T) new AngleSlope.Abs(getDistribution().draw(), (AngleSlopeUnit) getUnit());
case "AngleSolidUnit":
return (T) new AngleSolid.Abs(getDistribution().draw(), (AngleSolidUnit) getUnit());
case "AreaUnit":
return (T) new Area.Abs(getDistribution().draw(), (AreaUnit) getUnit());
case "DensityUnit":
return (T) new Density.Abs(getDistribution().draw(), (DensityUnit) getUnit());
case "DimensionlessUnit":
return (T) new Dimensionless.Abs(getDistribution().draw(), (DimensionlessUnit) getUnit());
case "ElectricalChargeUnit":
return (T) new ElectricalCharge.Abs(getDistribution().draw(), (ElectricalChargeUnit) getUnit());
case "ElectricalCurrentUnit":
return (T) new ElectricalCurrent.Abs(getDistribution().draw(), (ElectricalCurrentUnit) getUnit());
case "ElectricalPotentialUnit":
return (T) new ElectricalPotential.Abs(getDistribution().draw(), (ElectricalPotentialUnit) getUnit());
case "ElectricalResistanceUnit":
return (T) new ElectricalResistance.Abs(getDistribution().draw(), (ElectricalResistanceUnit) getUnit());
case "EnergyUnit":
return (T) new Energy.Abs(getDistribution().draw(), (EnergyUnit) getUnit());
case "FlowMassUnit":
return (T) new FlowMass.Abs(getDistribution().draw(), (FlowMassUnit) getUnit());
case "FlowVolumeUnit":
return (T) new FlowVolume.Abs(getDistribution().draw(), (FlowVolumeUnit) getUnit());
case "ForceUnit":
return (T) new Force.Abs(getDistribution().draw(), (ForceUnit) getUnit());
case "FrequencyUnit":
return (T) new Frequency.Abs(getDistribution().draw(), (FrequencyUnit) getUnit());
case "LengthUnit":
return (T) new Length.Abs(getDistribution().draw(), (LengthUnit) getUnit());
case "LinearDensityUnit":
return (T) new LinearDensity.Abs(getDistribution().draw(), (LinearDensityUnit) getUnit());
case "MassUnit":
return (T) new Mass.Abs(getDistribution().draw(), (MassUnit) getUnit());
case "PowerUnit":
return (T) new Power.Abs(getDistribution().draw(), (PowerUnit) getUnit());
case "PressureUnit":
return (T) new Pressure.Abs(getDistribution().draw(), (PressureUnit) getUnit());
case "SpeedUnit":
return (T) new Speed.Abs(getDistribution().draw(), (SpeedUnit) getUnit());
case "TemperatureUnit":
return (T) new Temperature.Abs(getDistribution().draw(), (TemperatureUnit) getUnit());
case "TimeUnit":
return (T) new Time.Abs(getDistribution().draw(), (TimeUnit) getUnit());
case "TorqueUnit":
return (T) new Torque.Abs(getDistribution().draw(), (TorqueUnit) getUnit());
case "VolumeUnit":
return (T) new Volume.Abs(getDistribution().draw(), (VolumeUnit) getUnit());
default:
return (T) new DoubleScalar.Abs(getDistribution().draw(), getUnit());
}
}
}
/**
* Relative value.
* @param <T> The absolute DoubleScalar type
* @param <U> The unit type used
*/
public static class Rel<T extends DoubleScalar.Rel<U>, U extends Unit<U>> extends AbstractContinuousDistScalar implements | |
| File | Line |
|---|---|
| org\opentrafficsim\core\units\distributions\ContinuousDistDoubleScalar.java | 186 |
| org\opentrafficsim\core\units\distributions\DiscreteDistDoubleScalar.java | 212 |
public Rel(final double constant, final U unit)
{
super(constant, unit);
}
/**
* @return a drawn number from the distribution in the given unit.
*/
@SuppressWarnings({"unchecked", "rawtypes"})
public final T draw()
{
switch (getUnit().getClass().getSimpleName())
{
case "AccelerationUnit":
return (T) new Acceleration.Rel(getDistribution().draw(), (AccelerationUnit) getUnit());
case "AnglePlaneUnit":
return (T) new AnglePlane.Rel(getDistribution().draw(), (AnglePlaneUnit) getUnit());
case "AngleSlopeUnit":
return (T) new AngleSlope.Rel(getDistribution().draw(), (AngleSlopeUnit) getUnit());
case "AngleSolidUnit":
return (T) new AngleSolid.Rel(getDistribution().draw(), (AngleSolidUnit) getUnit());
case "AreaUnit":
return (T) new Area.Rel(getDistribution().draw(), (AreaUnit) getUnit());
case "DensityUnit":
return (T) new Density.Rel(getDistribution().draw(), (DensityUnit) getUnit());
case "DimensionlessUnit":
return (T) new Dimensionless.Rel(getDistribution().draw(), (DimensionlessUnit) getUnit());
case "ElectricalChargeUnit":
return (T) new ElectricalCharge.Rel(getDistribution().draw(), (ElectricalChargeUnit) getUnit());
case "ElectricalCurrentUnit":
return (T) new ElectricalCurrent.Rel(getDistribution().draw(), (ElectricalCurrentUnit) getUnit());
case "ElectricalPotentialUnit":
return (T) new ElectricalPotential.Rel(getDistribution().draw(), (ElectricalPotentialUnit) getUnit());
case "ElectricalResistanceUnit":
return (T) new ElectricalResistance.Rel(getDistribution().draw(), (ElectricalResistanceUnit) getUnit());
case "EnergyUnit":
return (T) new Energy.Rel(getDistribution().draw(), (EnergyUnit) getUnit());
case "FlowMassUnit":
return (T) new FlowMass.Rel(getDistribution().draw(), (FlowMassUnit) getUnit());
case "FlowVolumeUnit":
return (T) new FlowVolume.Rel(getDistribution().draw(), (FlowVolumeUnit) getUnit());
case "ForceUnit":
return (T) new Force.Rel(getDistribution().draw(), (ForceUnit) getUnit());
case "FrequencyUnit":
return (T) new Frequency.Rel(getDistribution().draw(), (FrequencyUnit) getUnit());
case "LengthUnit":
return (T) new Length.Rel(getDistribution().draw(), (LengthUnit) getUnit());
case "LinearDensityUnit":
return (T) new LinearDensity.Rel(getDistribution().draw(), (LinearDensityUnit) getUnit());
case "MassUnit":
return (T) new Mass.Rel(getDistribution().draw(), (MassUnit) getUnit());
case "PowerUnit":
return (T) new Power.Rel(getDistribution().draw(), (PowerUnit) getUnit());
case "PressureUnit":
return (T) new Pressure.Rel(getDistribution().draw(), (PressureUnit) getUnit());
case "SpeedUnit":
return (T) new Speed.Rel(getDistribution().draw(), (SpeedUnit) getUnit());
case "TemperatureUnit":
return (T) new Temperature.Rel(getDistribution().draw(), (TemperatureUnit) getUnit());
case "TimeUnit":
return (T) new Time.Rel(getDistribution().draw(), (TimeUnit) getUnit());
case "TorqueUnit":
return (T) new Torque.Rel(getDistribution().draw(), (TorqueUnit) getUnit());
case "VolumeUnit":
return (T) new Volume.Rel(getDistribution().draw(), (VolumeUnit) getUnit());
default:
return (T) new DoubleScalar.Rel(getDistribution().draw(), getUnit());
}
}
}
} | |
| File | Line |
|---|---|
| org\opentrafficsim\core\dsol\OTSDEVSAnimator.java | 32 |
| org\opentrafficsim\core\dsol\OTSDEVSRealTimeClock.java | 33 |
public OTSDEVSAnimator()
{
super();
}
/** {@inheritDoc} */
@Override
public final void initialize(
final Replication<DoubleScalar.Abs<TimeUnit>, DoubleScalar.Rel<TimeUnit>, OTSSimTimeDouble> initReplication,
final ReplicationMode replicationMode) throws SimRuntimeException
{
try
{
super.initialize(initReplication, replicationMode);
}
catch (RemoteException exception)
{
throw new SimRuntimeException(exception);
}
}
/** {@inheritDoc} */
@Override
public final void scheduleEventRel(final Time.Rel relativeDelay, final short priority, final Object source,
final Object target, final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventRel(relativeDelay, priority, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void scheduleEventRel(final Time.Rel relativeDelay, final Object source, final Object target,
final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventRel(relativeDelay, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void scheduleEventAbs(final Time.Abs absoluteTime, final Object source, final Object target,
final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventAbs(absoluteTime, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void scheduleEventAbs(final Time.Abs absoluteTime, final short priority, final Object source,
final Object target, final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventAbs(absoluteTime, priority, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void runUpTo(final Time.Abs when) throws SimRuntimeException
{
super.runUpTo(when);
} | |
| File | Line |
|---|---|
| org\opentrafficsim\core\dsol\OTSDEVSAnimator.java | 38 |
| org\opentrafficsim\core\dsol\OTSDEVSSimulator.java | 31 |
@Override
public final void initialize(
final Replication<DoubleScalar.Abs<TimeUnit>, DoubleScalar.Rel<TimeUnit>, OTSSimTimeDouble> initReplication,
final ReplicationMode replicationMode) throws SimRuntimeException
{
try
{
super.initialize(initReplication, replicationMode);
}
catch (RemoteException exception)
{
throw new SimRuntimeException(exception);
}
}
/** {@inheritDoc} */
@Override
public final void scheduleEventRel(final Time.Rel relativeDelay, final short priority, final Object source,
final Object target, final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventRel(relativeDelay, priority, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void scheduleEventRel(final Time.Rel relativeDelay, final Object source, final Object target,
final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventRel(relativeDelay, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void scheduleEventAbs(final Time.Abs absoluteTime, final Object source, final Object target,
final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventAbs(absoluteTime, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void scheduleEventAbs(final Time.Abs absoluteTime, final short priority, final Object source,
final Object target, final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventAbs(absoluteTime, priority, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void runUpTo(final Time.Abs when) throws SimRuntimeException
{
super.runUpTo(when);
}
} | |
| File | Line |
|---|---|
| org\opentrafficsim\core\dsol\OTSDEVSRealTimeClock.java | 39 |
| org\opentrafficsim\core\dsol\OTSDEVSSimulator.java | 31 |
@Override
public final void initialize(
final Replication<DoubleScalar.Abs<TimeUnit>, DoubleScalar.Rel<TimeUnit>, OTSSimTimeDouble> initReplication,
final ReplicationMode replicationMode) throws SimRuntimeException
{
try
{
super.initialize(initReplication, replicationMode);
}
catch (RemoteException exception)
{
throw new SimRuntimeException(exception);
}
}
/** {@inheritDoc} */
@Override
public final void scheduleEventRel(final Time.Rel relativeDelay, final short priority, final Object source,
final Object target, final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventRel(relativeDelay, priority, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void scheduleEventRel(final Time.Rel relativeDelay, final Object source, final Object target,
final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventRel(relativeDelay, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void scheduleEventAbs(final Time.Abs absoluteTime, final Object source, final Object target,
final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventAbs(absoluteTime, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void scheduleEventAbs(final Time.Abs absoluteTime, final short priority, final Object source,
final Object target, final String method, final Object[] args) throws SimRuntimeException
{
super.scheduleEventAbs(absoluteTime, priority, source, target, method, args);
}
/** {@inheritDoc} */
@Override
public final void runUpTo(final Time.Abs when) throws SimRuntimeException
{
super.runUpTo(when);
} | |
| File | Line |
|---|---|
| org\opentrafficsim\simulationengine\SimpleAnimator.java | 142 |
| org\opentrafficsim\simulationengine\SimpleAnimator.java | 260 |
this.simulatorTime.add(r1);
}
}
}
synchronized (super.semaphore)
{
this.simulatorTime = event.getAbsoluteExecutionTime();
this.fireTimedEvent(SimulatorInterface.TIME_CHANGED_EVENT, this.simulatorTime, this.simulatorTime);
// carry out all events scheduled on this simulation time, as long as we are still running.
while (this.isRunning() && !this.eventList.isEmpty()
&& event.getAbsoluteExecutionTime().eq(this.simulatorTime))
{
event = this.eventList.removeFirst();
try
{
event.execute();
}
catch (Exception exception)
{
exception.printStackTrace();
System.err.println(event.toString());
if (this.isPauseOnError())
{
this.stop();
}
}
if (!this.eventList.isEmpty())
{
// peek at next event for while loop.
event = this.eventList.first();
}
}
}
}
this.fireTimedEvent(SimulatorInterface.TIME_CHANGED_EVENT, this.simulatorTime, this.simulatorTime);
updateAnimation();
animationThread.stopAnimation();
} | |
| File | Line |
|---|---|
| org\opentrafficsim\simulationengine\SimpleAnimator.java | 44 |
| org\opentrafficsim\simulationengine\SimpleSimulator.java | 42 |
public SimpleAnimator(final Time.Abs startTime, final Time.Rel warmupPeriod, final Time.Rel runLength,
final OTSModelInterface model) throws SimRuntimeException, NamingException
{
setPauseOnError(true);
initialize(new OTSReplication("rep" + ++this.lastReplication, new OTSSimTimeDouble(startTime), warmupPeriod,
runLength, model), ReplicationMode.TERMINATING);
}
/**
* {@inheritDoc}
*/
public final SimEvent<OTSSimTimeDouble> scheduleEvent(final Time.Abs executionTime, final short priority,
final Object source, final Object target, final String method, final Object[] args) throws SimRuntimeException
{
SimEvent<OTSSimTimeDouble> result =
new SimEvent<OTSSimTimeDouble>(new OTSSimTimeDouble(new Time.Abs(executionTime.getSI(), SECOND)), priority,
source, target, method, args);
scheduleEvent(result);
return result;
} | |
| File | Line |
|---|---|
| org\opentrafficsim\core\gtu\animation\AccelerationGTUColorer.java | 87 |
| org\opentrafficsim\core\gtu\animation\VelocityGTUColorer.java | 54 |
if (ratio <= 0)
{
return this.legend.get(0).getColor();
}
if (ratio >= this.legend.size() - 1)
{
return this.legend.get(this.legend.size() - 1).getColor();
}
// Interpolate
int floor = (int) Math.floor(ratio);
return ColorInterpolator.interpolateColor(this.legend.get(floor).getColor(), this.legend.get(floor + 1).getColor(),
ratio - floor);
}
/** {@inheritDoc} */
@Override
public final List<LegendEntry> getLegend()
{
return Collections.unmodifiableList(this.legend);
}
/** {@inheritDoc} */
@Override
public final String toString()
{
return "Acceleration"; | |
| File | Line |
|---|---|
| org\opentrafficsim\simulationengine\SimpleAnimator.java | 89 |
| org\opentrafficsim\simulationengine\SimpleAnimator.java | 205 |
r1 = this.relativeMillis(factor);
}
// peek at the first event and determine the time difference relative to RT speed.
SimEventInterface<OTSSimTimeDouble> event = this.eventList.first();
double simTimeDiffMillis = (event.getAbsoluteExecutionTime().minus(simTime0)).doubleValue() / (msec1 * factor);
/*
* simTimeDiff gives the number of milliseconds between the last event and this event. if speed == 1, this is the
* number of milliseconds we have to wait. if speed == 10, we have to wait 1/10 of that. If the speed == 0.1, we
* have to wait 10 times that amount. We might also be behind.
*/
if (simTimeDiffMillis < (System.currentTimeMillis() - clockTime0))
{
// we are behind.
if (!isCatchup())
{
// if no catch-up: re-baseline.
clockTime0 = System.currentTimeMillis();
simTime0 = this.simulatorTime;
}
else
{
// if catch-up: indicate we were behind.
this.fireTimedEvent(BACKLOG_EVENT, this.simulatorTime, null);
}
}
else
{
while (simTimeDiffMillis > System.currentTimeMillis() - clockTime0)
{
try
{
Thread.sleep(1); | |
