Uses of Class
org.opentrafficsim.core.network.LateralDirectionality

Packages that use LateralDirectionality

Package	Description
org.opentrafficsim.core.gtu.lane	The lane-based GTUs are the Generalized Travel Units that travel in lanes, and need to switch lanes to overtake.
org.opentrafficsim.core.gtu.lane.changing	Classes that deal with lane changing models.
org.opentrafficsim.core.network	Classes that build a network with nodes, links, and cross-sections.
org.opentrafficsim.core.network.lane	Classes that provide detailed cross-sections of a link using lanes, markers and sensors.
org.opentrafficsim.core.network.route	Routes and route probabilities.

Uses of LateralDirectionality in org.opentrafficsim.core.gtu.lane

Methods in org.opentrafficsim.core.gtu.lane with parameters of type LateralDirectionality

Modifier and Type	Method and Description
Lane	LaneBlock.bestAccessibleAdjacentLane(Lane currentLane, LateralDirectionality lateralDirection, DoubleScalar.Rel<LengthUnit> longitudinalPosition) Determine whether there is a lane to the left or to the right of this lane, which is accessible from this lane, or null if no lane could be found.
Lane	LaneBasedGTU.bestAccessibleAdjacentLane(Lane currentLane, LateralDirectionality lateralDirection, DoubleScalar.Rel<LengthUnit> longitudinalPosition) Determine whether there is a lane to the left or to the right of this lane, which is accessible from this lane, or null if no lane could be found.
Lane	AbstractTrafficLight.bestAccessibleAdjacentLane(Lane currentLane, LateralDirectionality lateralDirection, DoubleScalar.Rel<LengthUnit> longitudinalPosition) Determine whether there is a lane to the left or to the right of this lane, which is accessible from this lane, or null if no lane could be found.
Lane	AbstractLaneBasedGTU.bestAccessibleAdjacentLane(Lane currentLane, LateralDirectionality lateralDirection, DoubleScalar.Rel<LengthUnit> longitudinalPosition) Determine whether there is a lane to the left or to the right of this lane, which is accessible from this lane, or null if no lane could be found.
Set<LaneBasedGTU>	LaneBlock.parallel(LateralDirectionality lateralDirection, DoubleScalar.Abs<TimeUnit> when) Determine which GTUs are parallel with us in a certain lateral direction, based on fractional positions.
Set<LaneBasedGTU>	LaneBasedGTU.parallel(LateralDirectionality lateralDirection, DoubleScalar.Abs<TimeUnit> when) Determine which GTUs are parallel with us in a certain lateral direction, based on fractional positions.
Set<LaneBasedGTU>	AbstractTrafficLight.parallel(LateralDirectionality lateralDirection, DoubleScalar.Abs<TimeUnit> when) Determine which GTUs are parallel with us in a certain lateral direction, based on fractional positions.
Set<LaneBasedGTU>	AbstractLaneBasedGTU.parallel(LateralDirectionality lateralDirection, DoubleScalar.Abs<TimeUnit> when) Determine which GTUs are parallel with us in a certain lateral direction, based on fractional positions.

Uses of LateralDirectionality in org.opentrafficsim.core.gtu.lane.changing

Methods in org.opentrafficsim.core.gtu.lane.changing that return LateralDirectionality

Modifier and Type	Method and Description
LateralDirectionality	LaneMovementStep.getLaneChange()

Constructors in org.opentrafficsim.core.gtu.lane.changing with parameters of type LateralDirectionality

Constructor and Description
FixedLaneChangeModel(LateralDirectionality laneChange) Construct a FixedLaneChangeModel.
LaneMovementStep(AccelerationStep gfmr, LateralDirectionality laneChange) Construct a new LaneChangeModelResult.

Uses of LateralDirectionality in org.opentrafficsim.core.network

Methods in org.opentrafficsim.core.network that return LateralDirectionality

Modifier and Type	Method and Description
static LateralDirectionality	LateralDirectionality.offsetDirection(double offset)
static LateralDirectionality	LateralDirectionality.valueOf(String name) Returns the enum constant of this type with the specified name.
static LateralDirectionality[]	LateralDirectionality.values() Returns an array containing the constants of this enum type, in the order they are declared.

Uses of LateralDirectionality in org.opentrafficsim.core.network.lane

Methods in org.opentrafficsim.core.network.lane with parameters of type LateralDirectionality

Modifier and Type	Method and Description
Set<Lane>	Lane.accessibleAdjacentLanes(LateralDirectionality lateralDirection, GTUType gtuType) Determine the set of lanes to the left or to the right of this lane, which are accessible from this lane, or an empty set if no lane could be found.
void	RoadMarkerAlong.addPermeability(GTUType gtuType, LateralDirectionality lateralDirection) Add lateral permeability for a GTU type in the direction of the design line of the overarching CrossSectionLink.
DoubleScalar.Rel<LengthUnit>	CrossSectionElement.getLateralBoundaryPosition(LateralDirectionality lateralDirection, double fractionalLongitudinalPosition) Return the lateral offset from the design line of the parent Link of the Left or Right boundary of this CrossSectionElement at the specified fractional longitudinal position.
DoubleScalar.Rel<LengthUnit>	CrossSectionElement.getLateralBoundaryPosition(LateralDirectionality lateralDirection, DoubleScalar.Rel<LengthUnit> longitudinalPosition) Return the lateral offset from the design line of the parent Link of the Left or Right boundary of this CrossSectionElement at the specified longitudinal position.
boolean	RoadMarkerAlong.isPermeable(GTUType gtuType, LateralDirectionality lateralDirection)

Uses of LateralDirectionality in org.opentrafficsim.core.network.route

Methods in org.opentrafficsim.core.network.route with parameters of type LateralDirectionality

Modifier and Type

Method and Description

protected DoubleScalar.Rel<LengthUnit>

AbstractLaneBasedRouteNavigator.computeSuitabilityWithLaneChanges(Lane startLane, double remainingDistance, Map<Lane,DoubleScalar.Rel<LengthUnit>> suitabilities, int totalLanes, LateralDirectionality direction, GTUType gtuType) Compute the suitability of a lane from which lane changes are required to get to the next point on the Route. This method weighs the suitability of the nearest suitable lane by (m - n) / m where n is the number of lane changes required and m is the total number of lanes in the CrossSectionLink.