Course syllabus

Course-PM

EEN090 Embedded control systems lp4 VT24 (7.5 hp)

The course is offered by the Department of Electrical Engineering

Contact details

Examiner

Bengt Lennartson, phone: 031-772 3722, bengt.lennartson@chalmers.se

Lecturer

Sabino Roselli, rsabino@chalmers.se 

Teaching Assistant

Wenhao Lu, wenhaol@chalmers.se

Exam Office

Room EDIT 3342, studadm.e2@chalmers.se

Course purpose:

The aim of the course is to introduce modeling, specification, and analysis of embedded control systems, covering both theoretical foundations and practical implementation. Students will learn about the integration of control algorithms with embedded hardware, real-time constraints, and communication protocols. Topics include microcontroller architecture, real-time operating systems (RTOS), sensor interfacing, digital control techniques, and software development for embedded applications. Hands-on laboratory exercises and projects will reinforce theoretical concepts.

The following concepts will be described at different levels in the course: embedded systems architecture, task scheduling and priorities, synchronization, deadlock detection and avoidance, fault detection and digital signal processing.

Lectures and Exercises Program

Week Lecture/Exercise Session Date Time  Room
W13 L1 Ch1-3 Intro 1      25-mar 10:15-12:00 Jupiter243
L3 Ch4-5 Memory Allocation 26-mar 13:15-15:00 Jupiter243
L3 Ch6 Multithreading 27-mar 13:15-15:00 Jupiter122
E1 Multithreading 28-mar 10:15-12:00 Jupiter122
W14 L4 Ch7 Scheduling 31-mar 13.15-15:00 Jupiter122
L5 Ch8 WCET + Interrupt 1-apr 10:15-12:00 Jupiter122
E2 Scheduling  2-apr  13:15-15:00 Jupiter122
W15 E3 Q&A Assignment 1 8-apr   8:15-10.00 Jupiter121
L6 Ch9 Synchronization  10-apr  10:15-12:00 Jupiter122
L7 Ch10 Resource Management 11-Apr 10:15-12:00 Svea130
W17 E4 Petri Net modelling 23-Apr  10:15-12:00 Jupiter122
E5 Q&A Assignment 2 24-Apr  10:15-12:00

Svea130

W18 L8 Optimization 28-Apr 13:15-15:00 Svea118
L9 Ch11 Deadlock 29-Apr 8:15-10:00 Jupiter122
W19 L10 Ch14 Operating systems (FreeRTOS) 6-May 8:15-10:00 Jupiter121
E6 Deadlocks Verification 7-May  15:15-17:00  Gamma
L11 C12-13 Communication and Fault Tollerance 8-May 10:15-12:00 Delta
W20 L12 Ch20 Digital Signal Processing 12-May 10:15-12:00 Jupiter121
L13 Guest Lecture (Mandatory Attendance) 14-May 13:15-15:00 Svea118
E7 Q&A Assignment 3 15-May  13:15-15:00 Jupiter121
W21 L14 Summary 20-May 8:15-10:00 Jupiter121
E8 Old exam 20-May  10:15-12:00 Jupiter121
W22 L15 Q&A 28-May 15:15-17:00 Jupiter121

 

TimeEdit Chalmers - EEN090 

Home Assignments

Release Date Submission date Content

Assignment 1

Friday 28/3

 Friday11/4

Scheduling and WCET

Assignment 2

Monday 14/4

Tuesday 29/4

Multithreading

Assignment 3

Friday 02/5

Friday 16/5

FreeRTOS

 

Course literature

  • D.W. Harder, J. Zarnett, V. Montaghami, and A. Giannikouris. A practical introduction to real-time systems for undergraduate engineering (RTS), see Files Literature.
  • Jan Lundgren, Mikael Rönnqvist, Peter Värbrand. Optimization;
  • Richard Barry, the FreeRTOS Team. Mastering the FreeRTOS Real Time Kernel;

 

Changes made since the last occasion

Topics related to optimal scheduling have been downsized in favor of Communication, Fault Tolerance, and Digital Signal Processing

Learning objectives and syllabus

  1. Understand Embedded Systems Fundamentals and architecture;
  2. Develop Embedded C code for Control Systems:
  3. Explain concepts related real-time systems, including concurrency, multi-tasking, and resource management;
  4. Describe challenges in real-time systems including deadlock and starvation, and how to tackle such challenges;
  5. Explain communication protocols for embedded systems;
  6. Characterize faults in embedded systems and how they can be avoided or addressed; 
  7. Use real-time operating systems to manage the resources of an embedded system.

Link to the syllabus on Studieportalen Study plan

Examination form

The students are evaluated through a final written exam (4.5 hec) and compulsory laboratory assignments (3.0 hec). 

The final grade, according to the scale Fail (U) or Pass (3, 4, 5), is given based on the individual grades for the written exam.

There are three individual assignments in the course.  Additional information regarding these assignments will later be found on the Assignment page.

Course representatives

The following students have been elected by the student administration to be course representatives in the course evaluation:

TIMEL   adamabu@student.chalmers.se     Adam Abunaj
TIMEL   johanssonnicholas@icloud.com    Nicholas Choufleur Johansson
TIMEL   Ludwig.harisuo@gmail.com        Ludwig Harisuo
TIMEL   alexandercuchi@hotmail.com      Alexander Olofsson
TIMEL   michaely@student.chalmers.se    Michael Yasso

To be a study representative means that you will be involved in the course evaluation process. See more details at https://www.chalmers.se/en/education/your-studies/plan-and-conduct-your-studies/course-evaluation