Contents
Period: February 6th
- May 20th 2026
Time: Friday
15.15 - 17.00
Place (Rooms): Van Steenis F1.04
Exceptions:
March 6th: Gorlaeus CM.1.26
March 20th: Van Steenis E0.04
Organizers:
Lecturer:
Dr
Erwin M. Bakker ( erwin@liacs.nl )
Room
LIACS Media Lab (LML)
Please
email for a meeting.
Teaching a ssistants:
George
Boukouvalas
Tingyan Lu
Kevin Bretz
NB
Register on Brightspace
Description:
During the last decade
we have seen an "explosion" of all kinds of robots
designed for tasks that previously were deemed too
challenging for machines. Robots have evolved from
robotic arms and karts that could execute
repetitive or simple tasks such as painting,
welding and vacuum cleaning to autonomous cars,
drones and humanoid helpers and servants that
execute their tasks in much less controlled and
even natural settings. For this modern robots
require sophisticated adaptive capabilities.
During the course we will have a thorough look at
the important aspects of robot-architectures used
in modern and state of the art robots. The use of
various actuators and sensors will be studied.
Algorithms for low level tasks such as movement,
dead reckoning, obstacle-detection, and balancing
will be presented. Intermediate level tasks such
as mapping, obstacle recognition and avoidance,
and more advanced modes of reckoning, navigation
and object manipulation will be studied. Finally,
high level tasks such as human-robot-interaction
and adaptive behavior in natural environments will
be studied and proto-typed using state of the art
sensor analysis, computer vision and audio
recognition techniques.
Course objectives
After successfully finishing the Robotics course
the student:
Is
able to explain and apply the underlying
methods, architectures and operating systems of
modern state of the art robotic platforms.
Is
capable of designing, developing, implementing,
analysing and evaluating algorithms for low-,
and mid-level robotic tasks on different robotic
simulators and platforms.
Is
able to explain, analyse and evaluate the
challenges and progress in robotics research.
Is
able to design and implement high level robotic
tasks using state of the art tools for sensor
analysis, computer vision and audio recognition
techniques.
I s capable of
creating, implementing and evaluating a
prototype for autonomous robotics tasks such as
visual understanding and autonomous actuation or
driving, Human Robot Interaction, etc.
Recommended skills:
fluent in C, C++, or Python
Grading (6 ECTS): Presentations
and Robotics Project (60% of grade). Class
discussions and attendance (+), assignments (pass/no
pass), Mobile Robot Challenge (20% of the grade) and
2 workshops (0-10) (20% of grade).
It is necessary to be at every class and to
complete every workshop . If you can not be
there, you must contact Dr. E.M. Bakker before
class!
Materials:
Lecture
slides and further materials will be made available
on this site.
List of
recommended books:
To be added
Schedule
(tentative, visit regularly):
Date
Subject
6-2
Introduction
and Overview
13-2
Locomotion
and Inverse Kinematics
20-2
Robotics Sensors and
Image Processing
27-2
No Class
6-3
SLAM
(Gorlaeus, Room CM1.26 )
13-3
Project Proposals I (by
students)
20-3
Project
Proposals II (by students)
(Van Steenis, Room E0.04 )
27-3
Robotics
Vision + Mobile Robots Challenge
3-4
Robotics & Deep Learning
10-4
Online
Meetings with Project Teams
17-4
Online
Meetings with Project Teams
24-4
Mobile
Robot Challenge I
1-5
Mobile
Robot Challenge II
8-5
No
Class
15-5
No Class
18-5
Project Demos
I
19-5
Project
Demos II
1-6
Project
Deliverables
Assignments
(workshops):
Assignment 1: Cool
robots (Grading: pass/no pass), available on
Brightspace. Due 12-2 2026.
Assignment 2: Robot
mechanics (Grading: pass/no pass)
Slam Workshop@Home
(Grading: 10% of final grade)
RL Workshop@Home
(Grading: 10% of final grade).
Mobile Robot
(Grading: 20% of final grade)
Final Project Demo
and Deliverables (Grading: 60% of final grade)
Project Links
(Selection):