Modeling Tools
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RBDL - Rigid body dynamics library
RBDL contains highly efficient code for both forward and inverse dynamics of rigid multibody systems. It includes the Recursive Newton Euler Algorithm, the Composite Rigid Body Algorithm, and the Articulated Body Algorithm. Furthermore, it contains functions for forward and inverse kinematics and contact handling. The code is written by Martin Felis, University of Heidelberg, and follows the book "Rigid Body Dynamics Algorithms" of Roy Featherstone.
Webpage: https://github.com/rbdl/rbdl (old: https://rbdl.bitbucket.io/)
Licence: zlib free software license
iDynTree multibody dynamics library
iDynTree is a library of robots dynamics algorithms for control, estimation, and simulation. It is specifically designed for free-floating robots, but it is possible to use it also with fixed-base robots. iDynTree is written in C++ language, but thanks to SWIG it is possible to use the iDynTree algorithms in several other languages. Support and documentation are provided in particular for C++, Matlab and Python.
Webpage: https://github.com/
License: GNU Lesser General Public License v3.0 or v2.1
Pinocchio - Fast Forward Inverse Dynamic for Multibody Systems
Pinocchio is a C++ library for dynamic computations focusing on robotic, computer animation and biomechanical applications. It is based on the dynamic multi-body computations formalized by Featherstone in his book. The software comes with a python wrapping and visualization tool.
Webpage: https://stack-of-tasks.github.io/pinocchio/
License: GNU Lesser General Public License v3.0 or later
RBDyn
RBDyn provides a set of classes and functions to model the dynamics of rigid body systems. The implementation is based on Roy Featherstone Rigid Body Dynamics Algorithms book and other states of the art publications.
Webpage: https://github.com/jrl-umi3218/RBDyn
License: BSD 2-clause
Drake - Model-based design and verification for robotics
Drake is a C++ toolbox started by the Robot Locomotion Group at the MIT Computer Science and Artificial Intelligence Lab (CSAIL). The core development is currently led by the Toyota Research Institute. It is a collection of tools for analyzing the dynamics of our robots and building control systems for them, with a heavy emphasis on optimization-based design/analysis.
Webpage: https://drake.mit.edu
License: BSD 3-clause
Robotran - Symbolic generator of multibody systems
Robotran is a symbolic software to model and analyze MultiBody Systems (MBS). It is a powerful tool to deal with both industrial and research applications, such as: robot manipulators, parallel actuators, human body, car suspensions, railway bogies, transmission mechanisms, machine tools etc.
Webpage: https://www.robotran.be/
Control Toolbox
The Control Toolbox ('CT'), is a C++ library for modeling, control, estimation, trajectory optimization and model predictive control. The CT is applicable to a broad class of dynamic systems, but features additional tools specially designed for robotics. This page outlines its general concept, its major building blocks and highlights selected application examples. The library contains several tools to design and evaluate controllers, model dynamical systems and numerically solve optimal control problems.
Webpage: https://ethz-adrl.github.io/ct/
License: BSD 2-clause
Crocoddyl
Crocoddyl is an optimal control library for robot control under contact sequence. Its solver is based on an efficient Differential Dynamic Programming (DDP) algorithm. Crocoddyl computes optimal trajectories along to optimal feedback gains. It uses Pinocchio for fast computation of robot dynamics and its analytical derivatives.
Weboage: https://github.com/loco-3d/crocoddyl
License: BSD 3-clause