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Compounds |
| class | IKCCD |
| class | IKDirectSearch |
| | This class contains methods for calculating inverse position and velocity solutions for serial manipulators using the Resolved Rate technique. More...
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| class | IKJacobian |
| | This class contains methods for calculating inverse position and velocity solutions for serial manipulators using the Resolved Rate technique. More...
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| class | IKJAvoidLimits |
| | This class is used to calculate the inverse position solution using a weighting matrix based on the joint limits. More...
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| class | IKJDLS |
| | IKJacobian with Damped Least Square (DLS) technique. More...
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| class | IKJGenerateOptions |
| | Generates a set of inverse kinematics solutions for redundant serial manipulators. More...
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| class | IKJReconfig |
| | Used to calculate the inverse position solution using the active/inactive functionality. More...
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| class | IKJTranspose |
| | This class contains methods for calculating inverse position solutions for serial manipulators (especially low DOF manipulators) using the Jacobian Transpose technique. More...
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| class | IKMitsubishi |
| | IKMitsubishi Implements a closed form solution for a standard Mitsubishi Robot. More...
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| class | IKPosition |
| | IKPosition acts as the base class for inverse position functionality. More...
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| class | IKPuma |
| | IKPuma Implements a closed form solution for a standard Puma Robot. More...
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| class | IKVelocity |
| | IKVelocity acts as the base class for inverse velocity functionality. More...
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| class | KinematicsHandler |
| | KinematicsHandler describes an abstract class for computing the forward and inverse kinematics of serial robot arms. This class also checks for position limits. User should derive a specific class from this or use the GeneralKinematicsHandler class that is derived from KinematicsHandler. This class and dervied classes implement functionality that computes the forward and inverse position solution. It also checks joint travel limits and singularities. Objects of this class will always maintain a valid joint state and the corresponding cartesian state. Inputs that violate position limits or lead to singularities will not lead to an erroneous state of the system. More...
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Variables |
| const OSCARError | IKErrors |
| const OSCARError | ikDefinitionError |
| const OSCARError | badLimitsData |
| const OSCARError | minMOTReached |
| const OSCARError | maxIterationCountReached |
| const OSCARError | singularity |
| const OSCARError | illegalNullSpaceSize |
| const OSCARError | outOfReach |