Education

The Telecommunications and Information Theory Division offers expertise in various fields, including:

Our laboratory provides students with the opportunity to apply their knowledge using well-known simulation tools. This hands-on experience allows them to verify the concepts learned in each course, effectively bridging theory with practice.

CODE

COURSE

CONTENT

ECE_Y210
Introduction to Electrical and Computer Engineering Science (Telecommunications)
In this first-year course, students have the opportunity to learn several fundamental aspects of network structures. Research and tutorial papers are provided focusing primarily on Fiber-to-the-Home (FTTH) networks and Free-Space Optical Communications (FSO).
ECE_Y524

Communication Systems

This course delves into communication systems, both analog and digital. It explores the core concepts, components, and historical evolution of these systems, with a particular focus on modulation techniques, noise considerations, digitization processes, and transmission methods. Students will gain a comprehensive understanding of information transmission and reception, the challenges of maintaining signal integrity, and the strategies employed to address them.
ECE_Y621
Electrical Measuring Devices & Measuring Techniques (Telecommunications)
This course dives into the measurement of telecommunication system performance. It starts with a brief overview of the basic structure of a telecommunications system. You’ll then learn about the key phenomena that can affect the quality of the signal received at the end of the transmission path. The course explores basic methods used to characterize the quality of the received signal. It goes deeper into specific methods for measuring and evaluating signal quality, including Eye Diagrams, Signal-to-Noise Ratio (SNR), Bit Error Rate (BER) / Symbol Error Rate (SER), Quality Factor (Q-factor), and Error Vector Magnitude (EVM). Finally, the course explores techniques for correlating the estimated error rate with other measured parameters like SNR, Q-factor, and EVM.

CODE

COURSE

CONTENT

ECE_AK802
Wireless & Mobile Communications Networks
This course equips students with a foundational understanding of the core concepts driving the latest and next generation of mobile and wireless networks. It seamlessly blends theoretical knowledge with practical applications, delving into the architecture and functionalities of Cellular, LTE, and the ever-evolving landscape of 4G, 5G, and even B5G systems.
ECE_AK805
Optical Communications
This course is highly relevant as data traffic continues to surge. Students will explore the key phenomena affecting transmission in optical fibers and amplified optical links. We’ll then delve into the architecture of transceivers used in today’s and future networks. Theory will be solidified through hands-on labs and simulations, with a particular focus on innovative advancements in the field.
ECE_CK813
Optoelectronic and Photonic Technology

Photonics is poised to play a transformative role in the 21st century, just as electronics revolutionized the 20th. This course equips students with the foundational knowledge and skills needed to contribute to this exciting field.

The course will delve into the fundamental principles governing the behavior of light, including its interaction with matter. Students will explore the design and manufacturing techniques used to create modern photonic and optoelectronic devices. They will also discover the vast array of applications for photonics technology and gain the skills to independently research and retrieve information relevant to specific research tasks.
This course provides a strong foundation for further study and careers in photonics, a rapidly growing field with the potential to revolutionize numerous industries.

ECE_AK904
Broadband Networks – Optical Networks
This course explores the evolution of telecommunication networks, culminating in today’s advanced B5G optical networks. It equips students with a strong foundation by introducing them to key technologies like ATM, SDH, and MPLS. Building upon this knowledge, the course delves into the architectural aspects of modern networks, including optical switching, network components, multiple access schemes, and Passive Optical Networks (PONs). This comprehensive approach equips students to understand the inner workings of modern communication infrastructure and prepares them to contribute to its ongoing development.