Title: A Computational and Physical Framework for Mechanisms and Robot Motion Design
Organizer: Anurag Purwar; Stony Brook University
Description: This workshop will introduce attendees to a new computational framework for mechanism and robot motion design and a physical robot prototyping kit using which students and practitioners can design one- and multiple-degrees of freedom mechanisms and physically realize them. The computational framework brings together machine learning with machine design to solve motion generation and path synthesis problem for mechanism design. Attendees will get hands-on exposure to a web-based motion design software tool called MotionGen Pro and a robot hardware called SnappyXO Design, both developed at Stony Brook University to support the needs of students in classes, such as Freshman Design Innovation, Kinematics of Machinery, Mechatronics, and Robotics. While the hardware serves as a reference hardware, the software also allows exporting robot part geometry for laser-cutting or 3D printing.
Title: Getting the right model of your robot in an easy way using modern geometric methods
Organizer: Andreas Mueller; Johannes Kepler University
Description: A fundamental prerequisite for control and design of dexterous robots such as serial and parallel manipulators, humanoids, space robots is are kinematics and dynamics models with sufficient level of fidelity and complexity. Four decades of research on multibody dynamics has led to systematic modeling approaches for complex systems. Recent research elevated these results to a more concise level by means of Lie group methods. These "modern" approaches make use of the differential geometry of rigid body motions, i.e. screw motions. The coordinate invariance of such formulations not only makes the modeling extremely handy but also leads to computationally efficient formulations. This is true for robotic systems with arbitrary topology. Moreover, the geometric approach allows for compact relations for higher-order derivatives of the kinematics and dynamics model, which is necessary for flatness based control of robots actuated with serial elastic actuators and soft robots. A salient feature of geometric modeling approaches is their ease of use, which allows for straightforward manual implementation for specific robots as well as for the programing of general purpose simulators.
In this tutorial, modern modeling approach are introduced to a wider audience in form of a hands-on introduction. The tutorial is interactive, and accompanied with computer exercises. Attendees are requested to bring their own computer with installed Mathematics or Maple.
Past Kinematics Summer Schools
Date: August 17-18, 2019
Venue: Hilton Anaheim, CA
Website: https://sites.google.com/stonybrook.edu/2019kiss/home
Videos: https://sites.google.com/stonybrook.edu/2019kiss/videos
Date: August 20-21, 2016
Venue: Westin Charlotte, Charlotte, NC
Website: https://sites.google.com/a/illinois.edu/kinematics-summer-school-2016/home
Archive: https://sites.tntech.edu/scanfield/mr-summer-school-16-compliant-mechanisms/
Date: August 15-16, 2014
Venue: University at Buffalo, Buffalo, NY
Website/archive: https://sites.google.com/a/stonybrook.edu/kinematics-summer-school/
Videos: https://sites.google.com/a/stonybrook.edu/kinematics-summer-school/videos
International Summer School on Screw-Theory Based Methods in Robotics
Date: 28 August to 5 September 2016
Website: http://www.summerscrews.org/
Venue: École de technologie supérieure (ÉTS), Montreal, Canada