Arm control / Planning

manfredarm

Description

The Light Weight Robot UC3M-1 (LWR-UC3M-1) is a robotic arm with 6 degrees of freedom that allows the robot to do manipulation tasks in human environments. Its main features are the following:

  • Kinematic chain similar to the human one.
  • Total weight of 18 kilograms.
  • Maximum load capability of 4.5 kilograms at the end effector.
  • Maximum distance reached around 955 millimeters.

The low-level control of the arm is done with a PMAC PCI control target which allows simultaneous control of 8 motors. Besides, different high level kinematic control techniques have been developed in order to generate the required trajectories for multiple tasks. Among these techniques, the most important ones are:

  • Cartesian control based on the analytical Jacobian matrix, which gives us the relationship between the cartesian velocities at the end effector and the required velocities in the articulations in order to execute the required trajectory. This control scheme is based on the one proposed by Sciavicco y Siciliano in “Modelling and control of robot manipulators”, 2005.
  • Cartesian control based on the the calculation of the inverse kinematics of the manipulator using evolutionary algorithms. In this case, the Differential Evolution algorithm is used to calculate the motors positions that allow the end effector to reach the desired cartesian point in the space.

Laser Scan

Entries:
Remote Interaction with Mobile Robots
Autonomous Robots. num. 3 , vol. 15 , pages: 267 – 281 , 2003
A.M. Khamis M.A. Salichs
Software Architecture for Internet Mobile Robotics
Robotics and Machine Perception. SPIE. num. 1 , vol. 12 , pages: 7 – 11 , 2003
A.M. Khamis M.A. Salichs

Entries:
Humanoid Teleoperation System for Space Environments
14th International Conference on Advanced Robotics (ICAR '09), 2009, Munich, Germany
P. Pierro M. González-Fierro D. Hernandez
Maggie: A Robotic Platform for Human-Robot Social Interaction
IEEE International Conference on Robotics, Automation and Mechatronics (RAM 2006), 2006, Bangkok, Thailand
E. Delgado A. Corrales R. Rivas R. Pacheco A.M. Khamis Javi F. Gorostiza M. Malfaz R. Barber M.A. Salichs
Sistema de Interacción Remota con Robots Móviles basado en Internet I
I Jornadas de Trabajo: Educación en Automática. DocenWeb: Red Temática de Docencia en Control mediante Web, 2004, Alicante, Spain
A.M. Khamis R. Barber M.A. Salichs
Pattern-based Architecture for Building Mobile Robotics Remote Laboratories
IEEE International Conference on Robotics and Automation, Taipei, Taiwan
M. Rivero A.M. Khamis M.A. Salichs
Multiact Approach for Building Web-based Educational Environments: Mobile Robotics Course as a Case Study
The 11th Mediterranean Conference on Control and Automation, MED'03, Rhodes, Greece
A.M. Khamis M.A. Salichs
The Merging to eLearning in Mobile Robotics
15th IFAC World Congress on Automatic Control (b?02), Barcelona, Spain
A.M. Khamis M.A. Salichs
Laboratorio a Distancia via Internet en Robotica Móvil
III Jornada de Trabajo – Enseñanza Vía Internet/Web de la Ingeniería de Sistemas y Automática- EIWSA 2002, 2004, Alicante, Spain
A.M. Khamis M.A. Salichs
Design of a Remote Laboratory on Mobile Robots
Internet-based Control Eduaction, IBCE01, Madrid, Spain
A.M. Khamis M.A. Salichs
A Remote Laboratory for Teaching Mobile Robotics
IFAC Conference on Telematics Applications and Robotics (TA2001), 2001, Weingarten, Germany
A.M. Khamis M.A. Salichs
Teaching Mobile Robotics to Anyone, Anywhere at Anytime
1st. EURON Workshop on Robotics Education and Training RET 2001, 2001, Weingarten, Germany
A.M. Khamis M.A. Salichs
Sensorial Data Acquisition Process for a Mobile Robot in the Virtual Laboratory
International Workshop in Teleeducation in Mechatronics based on Virtual Laboratories, 2001, Weingarten, Germany
A.M. Khamis M.A. Salichs

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