▼NEigen | |
CNumTraits< hpp::core::RelativeMotion::RelativeMotionType > | |
▼Nhpp | |
▼Ncore | |
►NconfigurationShooter | |
►NcontinuousValidation | |
►Ndistance | |
►Nparser | |
►Npath | |
►NpathOptimization | |
►NpathPlanner | |
►NpathProjector | |
►NpathValidation | |
►NproblemTarget | |
►NsteeringMethod | |
►NtimeParameterization | |
CAllCollisionsValidationReport | Validate a configuration with respect to collision |
CBiRRTPlanner | Implementation of directional bi-RRT algorithm maintaining only two connected components for respectively the start and goal configurations |
CCollisionPathValidationReport | Path validation report used for standard collision checking |
CCollisionValidation | Validate a configuration with respect to collision |
CCollisionValidationReport | Validate a configuration with respect to collision |
CConfigProjector | Implicit non-linear constraint |
CConfigurationShooter | Abstraction of configuration shooter |
CConfigValidation | Abstraction of configuration validation |
CConfigValidations | Validate a configuration with respect to collision |
CConnectedComponent | Connected component |
CConstraint | Constraint applicable to a robot configuration |
CConstraintSet | Set of constraints applicable to a robot configuration |
CContainer | |
CContinuousValidation | Continuous validation of a path |
CDiffusingPlanner | Generic implementation of RRT algorithm |
CDistance | Abstract class for distance between configurations |
CDistanceBetweenObjects | Computation of distances between pairs of objects |
CDubinsPath | Car like motion going only forward |
CEdge | Edge of a roadmap |
CInterpolatedPath | Piecewise linear interpolation between two configurations |
CJointBoundValidation | Validate a configuration with respect to joint bounds |
CJointBoundValidationReport | Report returned when a configuration is not within the bounds |
CKinodynamicDistance | This class computed the Distance between two states as the minimal time required to connect this two states with a "bang-bang" trajectory, given velocity and acceleration bounds |
CKinodynamicOrientedPath | Path with 2 segment of constant acceleration or 3 segments with a constant velocity segment This class is similar to KinodynamicPath exept that the orientation of the robot always follow the direction of the velocity |
CKinodynamicPath | |
CNearestNeighbor | Optimization of the nearest neighbor search |
CNode | Node of a roadmap |
CParameter | |
CParameterDescription | |
CPath | Abstraction of paths: mapping from time to configuration space |
CPathOptimizer | Abstraction of path optimizer |
CPathPlanner | Path planner |
CPathProjector | This class projects a path using constraints |
CPathValidation | Abstraction of path validation |
CPathValidationReport | Abstraction of path validation report |
CPathValidations | Validation of a path with multiple path validation methods |
CPathVector | Concatenation of several paths |
CPlanAndOptimize | Path planner and optimizer |
CProblem | Defines a path planning problem for one robot |
CProblemSolver | Set and solve a path planning problem |
CProblemSolverPlugin | Plugin mechanism to declare new features in ProblemSolver class |
CProblemTarget | Problem target |
Cprojection_error | |
CReedsSheppPath | Car like motion |
CRelativeMotion | |
CRoadmap | Roadmap built by random path planning methods Nodes are configurations, paths are collision-free paths |
CSteeringMethod | Steering method |
CStraightPath | Linear interpolation between two configurations |
CSubchainPath | Result of the selection of some configuration parameter of an original path |
CTimeParameterization | |
CValidationReport | Abstraction of validation report for paths and configurations |
CVisibilityPrmPlanner | Generic implementation of visibility-PRM algorithm, based on guard nodes (which cannot see each other) and connection nodes between guards |
CWeighedDistance | Weighed distance between configurations |