Programme structure

Semester 1
Communication Networks
Digital Communication Systems
Thematic Learning Unit: Electromagnetic Engineering
Semester 2
Option 1
Option 2
Option 3
Mobile Communications Laboratories
Mobile Communication Systems
Mobile Computing
Network Planning and Performance
Network Services and Applications
Optical Communications
Optical Communications Laboratories
Optical Networks
Wireless Networks and Protocols
Thesis Workplan

Semester 1

Communication Networks

Lecturers: José Ruela (coordinator), António Nogueira, Bruno Dias, Susana Sargento

Aims: The main objective of this course is to present the fundamentals of modern telecommunications systems and simultaneously enable students to consolidate and integrate previously acquired knowledge in this area. The course will mainly focus on two subjects: the network basic mechanisms and the TCP/IP architecture. The course will rely on a strong laboratorial component that will enable students to complement their theoretical knowledge with a set of guided experiments that will embrace the different layers and protocols of the TCP/IP architecture.

1. Network basic mechanisms
2. TCP/IP architecture
3. Overview of telecommunications networks

Digital Communication Systems

Lecturers: Paulo Ferreira (coordinator), Joaquim Neves, João Barros, José Cabral, Miguel Rodrigues

Aims: The objective of the course is to expose the students to cutting-edge research topics in relevant areas of digital communications, covering both theoretical and applied issues of recognized importance in contemporary communications. The course is not intended as an exhaustive survey of the area. On one hand, it revisits or complements the students’s background in digital communications. On the other hand, it brings to the students’s attention some of the challenges and open issues of the field that are currently under vigorous investigation. It is planned that some of the course lectures will be crash-courses where the relevant background is revisited. The focus of the remaining lectures will be on advanced topics and recent results.


1. Single-user information theory
2. Multiple-user information theory
3. Baseband and passband digital transmission systems
4. Baseband and passband digital receivers
5. Multiplexing
6. Basic coding techniques
7. Advanced coding techniques
8. Multi-carrier systems
9. Spread-spectrum systems
10. MIMO systems

Electromagnetic Engineering

Lecturers: Sushil Mendiratta (coordinator), Inês Carvalho, Paulo Mendes

Aims: To give the students some examples of the application of the general theory of electromagnetism along with mathematical formulations appropriate to solving the propagation of unguided and guided electromagnetic waves. The student must be able to identify and understand the main requirements, limitations, parameters, and the fundamentals associated with generation, propagation, and radiation of electromagnetic fields.

1. Time-varying electromagnetic fields. Maxwell equations. Boundary conditions. Power and
2. Wave equation and its solutions.
3. Wave propagation and polarization. Transverse electromagnetic modes (TEM). Transverse
electromagnetic modes (TEM) in lossy media. Polarization.
4. Reflection and transmission. Normal incidence – lossless media. Oblique incidence
lossless media. Normal incidence – lossy media. Oblique incidence – lossy media.
5. Auxiliary vector potentials Construction of solutions. Solution of the inhomogeneous vector
potential wave equation. Far-field radiation.
6. Electromagnetic theorems and principles. Duality theorem. Uniqueness theorem. Image
theory. Reciprocity theorem.
7. Transmission lines, waveguides and cavities. Coaxial lines. Stripline and microstrip lines. Dielectric waveguide.
8. Introduction to antennas

Semester 2

(see Optional learning units)