IEEE Winnipeg Section

IEEE

Archive for the ‘Robotics and Control Chapter’ Category

IEEE RobConIM Seminar – Computer Vision Applications for Human-Machine Collaboration – October 17, 2019

Sunday, October 13th, 2019

IEEE Robotics, Control, Instrumentation and Measurement (RobConIM) Seminar Series

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=–=-=-=-=-=-=-=-=-=-=-=-=-=–=-=-=-=-=-=-=-=-=-=

Computer Vision Applications for Human-Machine Collaboration

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=

SPEAKER: Ryan Batke, Fluid Power and Telerobotics Research Laboratory University of Manitoba

DATE: Thursday, October 17, 2019

TIME: 3:00 PM

PLACE: Room E2-361; Engineering & Information Technology Complex (EITC), Fort Garry Campus, University of Manitoba

ORGANIZER: IEEE Robotics, Control, Instrumentation and Measurement Chapter – Winnipeg Section

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-==-=-=-=-=-=-=-=-==-=-=-=-=-=-

This research is centered around the integration of computer-vision based perception capabilities with existing machines for the purpose of developing human-machine collaboration applications. In this research a 6-DOF hydraulic manipulator controlled via a haptic device is integrated with a standard HD webcam and two computer-vision-based applications were developed. Vision-based teleoperation is used to control the manipulator through the use of a fiducial marker replacing the haptic device. Additionally, a second application was developed in which a virtual safety wall is created around the manipulator to improve safety in environments where operators work in close proximity to moving machines.

Embedding fiducial markers onto clothing for the use of human identification and tracking was also tested via a third application in which the markers are tracked in a 3D environment to produce a 2D map of the user’s movements along with travel metrics.

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-==-=-=-=-=-=-=-=-=-=-

Ryan Batke is currently working toward his BSc degree in Mechanical Engineering at the University of Manitoba.

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-==-=-=-=-=-=-=-=-=-=-

Contact: Nariman Sepehri, PhD, PEng
Chair, IEEE RobConIM
Department of Mechanical Engineering, University of Manitoba Nariman.Sepehri@umanitoba.ca, (204) 474-6834

Seminar PDF

RobConIM Seminar – Development and Implementation of a State-Space Control System for a Single Inverted Pendulum – October 9, 2019

Monday, September 30th, 2019

IEEE Robotics, Control, Instrumentation and Measurement (RobConIM) Seminar Series presents:

 

Development and Implementation of a State-Space Control System for a Single Inverted Pendulum

 

SPEAKER:     Chris Dyck, NSERC USRA Researcher

                      Gerald Mainman Power Systems Dynamics & Control Lab

                      University of Manitoba

DATE:           Wednesday, October 9, 2019

TIME:           3:30 PM

PLACE:         E2-350 EITC Bldg. (Engineering & Information Technology Complex)
Fort Garry Campus
University of Manitoba

ORGANIZER:    IEEE Robotics, Control, Instrumentation & Measurement Chapter –
Winnipeg Section

ABSTRACT
The goal of this project was to design and implement a control system to balance a single inverted pendulum. One method to implement a control system is state-space formulation. State-space control systems allow for the reduction of the complexity of physical physics, and allows for straight-forward implementation on micro-controllers.

In student laboratories, Quanser’s real time controller could be used to design Simulink block diagrams to control the pendulum. The purpose of this project is to bring the existing control system to a low-cost embedded system which functions as a platform that can implement and test various control system techniques. By writing code in a ubiquitous programming language, C, students and researchers can build upon the state-space controller or implement other controllers. By closing the control loops through an Arduino, the pendulum was successfully balanced.

BIO
Chris Dyck (S’17) is currently working toward the BSc degree in electrical engineering at the University of Manitoba. He has held NSERC USRA’s at the University of Manitoba and Waterloo working on topics such as microwave imaging, quantum biology and control systems.

Autonomous Vehicles Projects in UNICAMP-Brazil – May 29, 2019

Saturday, May 25th, 2019

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=–=-=-=-=-=-=-=-=-=-=-=-=-=–=-=-=-=-=-=-=-=-=-=

Autonomous Vehicles Projects in UNICAMP-Brazil

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=

SPEAKER: Dr. Ely Carneiro de Paiva Professor

School of Mechanical Engineering

University of Campinas (UNICAMP), Brazil DATE: Wednesday, May 29, 2019

TIME: 2:00 pm
PLACE: Engineering & Information Technology Complex (EITC)

Room E1-270 – Borger Room
Fort Garry Campus, University of Manitoba

ORGANIZER: IEEE Robotics, Control, Instrumentation and Measurement Chapter – Winnipeg Section No registration is required.

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-==-=-=-=-=-=-=-=-==-=-=-=-=-=-

This talk describes research on the development of autonomous vehicles at the University of Campinas (UNICAMP), Brazil. The talk will focus on modelling and control of two mobile robotic platforms: a robotic airship for monitoring in the Brazilian Amazon, and a scaled multi-traction vehicle for agricultural applications in uneven terrains. Descriptions of both projects will be presented, along with challenges in dealing with control, motion planning and vision estimation.

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-==-=-=-=-=-=-=-=-=-=-=-=-=-=-=

Dr. Ely Paiva is a Professor in the School of Mechanical Engineering at the University of Campinas (UNICAMP), Brazil (www.fem.unicamp.br/~elypaiva). Previously he was a researcher at the Research Center Renato Archer (CTI), when he served in a team responsible for the modelling, simulation and control of the pioneer AURORA airship which in the year 2000 made the first autonomous flight of an outdoor unmanned airship. Presently, he is on a research leave at Concordia University, where he is working on the area of Optimal Guidance and Motion Planning.

=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-=-==-=-=-=-=-=-=-=-=-=-=-=-=-=-=

Contact: Dr. Nariman Sepehri, PhD, PEng
Chair, IEEE RobConIM, Winnipeg Section
Department of Mechanical Engineering, University of Manitoba

email: Nariman.sepehri@umanitoba.ca,

phone: 204-474-9821

On constrained and energy efficient balance control of a standing biped: experimentation and stability analysis – Nov 30, 2016

Thursday, September 29th, 2016

On constrained and energy efficient balance control of a standing biped: experimentation and stability analysis

IEEE Robotics, Control, Instrumentation and Measurement (RobConIM) Seminar Series

Yuming Sun, PhD

Wed, Nov 30, 2016

Location: E2-361 (liable to change), EITC, University of Manitoba

Stay tuned for further details!

Human gait analysis using entropy measures: Aging and dual tasking – Nov 16, 2016

Thursday, September 29th, 2016

Human gait analysis using entropy measures: Aging and dual tasking

IEEE Robotics, Control, Instrumentation and Measurement (RobConIM) Seminar Series

Samira Ahmadi, PhD Candidate

Wed, Nov 16, 2016

Location: E2-361 (liable to change), EITC, University of Manitoba

Stay tuned for further details!