Master degree in Telecommunications Systems

Explore the programs and courses offered by Master degree in Telecommunications Systems

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Program Overview

Duration of the Master's program: 2 years (4 semesters)

LMD system: Bachelor's – Master's – Doctorate

πŸ“š Semester 1: Advanced Fundamentals

  • Digital Signal Processing
  • Applied Mathematics in Telecommunications
  • Information Theory
  • RF and Microwave Circuits
  • Computer Networks
  • Programming Language (Python)

πŸ“‘ Semester 2: Communication Technologies

  • Advanced Digital Modulation
  • Communication Protocols (TCP/IP, VoIP, etc.)
  • Digital Transmission Systems
  • Antennas and Propagation
  • Electronics for Telecommunications
  • Guided Project or Mini-project

🧠 Semester 3: Advanced Topics & Specialization

  • Mobile Radio Systems (3G, 4G, 5G)
  • Wireless Networks and Sensors (WiFi, Zigbee, IoT)
  • Network Security
  • Network Simulation (e.g., NS2/NS3, OPNET)
  • Traffic Management and Quality of Service (QoS)
  • Start of Final Dissertation

πŸŽ“ Semester 4: Final Year Project (FYP)

  • Internship in a company or laboratory
  • Research Thesis or Applied Development Project
  • Defense before a jury


Teaching Language :

Curriculum Highlights

Core Courses

1. Signal Processing

Objective: To analyze and manipulate analog and digital signals for transmission and reception in telecommunications systems.

Content:

  • Fourier Transform (discrete and continuous)
  • Digital Filtering
  • Wavelet Transform
  • Spectral Analysis of Signals
  • Signal Coding and Compression

2. Digital Communication Systems

Objective: To study digital communication systems, which form the basis of modern networks such as 4G and 5G.

Content:

  • Digital Modulation and Demodulation
  • Spread Spectrum Modulation (QPSK, QAM, etc.)
  • Shannon Theorems
  • Signal Estimation and Detection in Noisy Systems
  • Error Correction Coding Techniques (Hamming Codes, Turbo Codes)

3. Communication Networks and Protocols

Objective: To acquire knowledge about the structure and management of communication networks (local area networks, telecommunications networks, etc.).

Content:

  • OSI and TCP/IP Model
  • Communication Protocols (IP, TCP, UDP, HTTP, etc.)
  • Circuit and Packet Switching
  • Network Architecture and Management (Wired and Wireless Networks)
  • Quality of Service (QoS) and Traffic Management

4. Wave Propagation and Antennas

Objective: To understand how electromagnetic waves propagate in different environments and the technologies associated with antennas used in telecommunications.

Content:

  • Wave Propagation (radiation, reflection, diffraction)
  • Propagation Models for Wireless Networks
  • Antennas and Antenna Systems (Directional Antennas, MIMO Networks, etc.)
  • Propagation Techniques for 5G and Other Wireless Networks

5. Telecommunications Electronics

Objective: To learn the fundamentals of electronics applied to telecommunications systems.

Content:

  • Electronic Components (diodes, transistors, amplifiers)
  • High-Frequency Circuits (RF, Microwaves)
  • Signal Filtering, Amplification, and Conversion
  • Semiconductor Technologies for Telecommunications

6. Embedded Systems and FPGA

Objective: To train students in the use of embedded systems and programmable logic circuits for telecommunications applications.

Content:

  • Embedded Systems Architecture
  • Introduction to FPGA (Field-Programmable Gate Array)
  • FPGA Programming for Telecommunications Applications
  • System-on-Chip (SoC) Design and Implementation

7. Network Security

Objective: To study techniques for securing telecommunications networks against attacks and intrusions.

Content:

  • Cryptography and Security Protocols (SSL, TLS, VPN)
  • Security in Wireless Networks (WEP, WPA, WPA2, WPA3)
  • Authentication and Access Control Techniques
  • Intrusion Detection and Prevention Systems (IDS/IPS)

8. Information Theory

Objective: To understand the theoretical foundations underlying data compression, coding, and information transmission.

Content:

  • Shannon Entropy and Channel Capacity
  • Lossless Compression (Huffman, Lempel-Ziv)
  • Source Coding and Channel Coding


Advanced Topics

Admissions Information

To be eligible for the Master's in Telecommunications Systems, you must hold a Bachelor's degree in Sciences and Technologies, Electrical Engineering, Computer Science, Applied Mathematics, or any other related field with a foundational background in telecommunications or electronics.

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