Course Overview

 

1. Course Presentation ()
2. Brief Introduction ()
3. Study Plan ()
4. Laboratories and Industry Relations ()
5. Career Opportunities and Employment Sectors ()

Program Curriculum 2026/2027 and 2027/2028
Course Presentation – Orientation (April 23, 2026)
Course Presentation Webinar (February 28, 2025)
Webinar Slides (February 28, 2025)
 

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2. Brief Introduction

The Master’s Degree in Communications Engineering is aimed at training highly qualified professionals capable of applying and developing technological innovation within companies and research laboratories, in both the public and private sectors.

In particular, the Degree Program in Telecommunications Engineering pursues educational objectives in the field of Information and Communication Technologies (ICT), which increasingly characterize today’s “information society,” contributing significantly to innovation in sectors such as work, manufacturing, media, transportation, security, healthcare, and the environment.

The program is taught entirely in English.

The Master’s Degree in Communications Engineering integrates knowledge from Electronic and Information Engineering acquired in first-cycle degree programs with advanced understanding of system-level and technological aspects related to the design, integration, management, and optimization of the various components of interconnected, complex, and continuously evolving systems (such as those related to smart cities, Industry 4.0, cyber-physical systems, Internet of Things, and homeland security).

The aim is to develop innovative engineering solutions while respecting constraints such as reliability, efficiency, resource optimization, and sustainability.

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3. Study plan

The educational structure is organized into two curricula:

  • Communication Networks and Services

  • Communication Technologies and Systems

It is designed to train professionals capable of meeting the needs not only of the main industrial sectors but also of interdisciplinary fields such as aerospace, bioengineering, defense, healthcare, and smart cities.

To this aim, the Master’s Degree in Communications Engineering offers a study program covering four main areas:

  • Digital Signal Processing and Biometrics

  • Wireless/Wired Communication Systems and IoT

  • Protocol Architectures and Programming for Distributed Systems

  • Microwaves, Antennas, and RF Electronics

Together, these areas provide students with solid knowledge—both theoretical and applied—necessary for the design, implementation, and operation of telecommunications devices, systems, and services.

This structure leads to two study paths that place strong emphasis on core disciplines in Telecommunications and Electromagnetic Fields.

In particular, given the presence of leading national and international companies operating in wireless communications in the region, the program includes extensive training in the design of wireless systems, communication devices, and antennas.

Furthermore, in light of current market trends, significant importance is given to telematic and multimedia services, as well as advanced topics such as emerging paradigms including:

  • 5G/6G systems

  • Internet of Things (IoT)

  • Network Intelligence and Softwarization

  • Forensic Biometrics

  • Computer Vision

Considering the growing impact of Artificial Intelligence across disciplines, many courses also include recent Machine Learning techniques applied to communication networks and systems.

The program also aims to strengthen students’ foundations in core Information Engineering disciplines, particularly Computer Science and Electronics.

For this reason, the study plan includes:

  • 15 ECTS in related Computer Science activities (Communication Networks and Services curriculum)

  • 18 ECTS in related Electronics activities (12 ECTS in Communication Technologies and Systems, 6 ECTS in Communication Networks and Services)

  • Several elective groups allowing students to customize their study path

All courses are taught in English to support internationalization and meet the needs of the global job market.

In this context, students are encouraged to participate in international experiences such as Erasmus and Erasmus+ Traineeship programs.

To ensure strong links with industry, the study plan includes a 9-ECTS curricular internship. In addition, 3 ECTS are dedicated to “Additional Skills,” usually taught by industry professionals. At least one annual visit to companies, institutions, and research centers is also organized.

The 18-ECTS Master’s thesis, when requested by the student, may be carried out in companies or research institutions in Italy or abroad, under the supervision of both an academic advisor and a supervisor from the host organization.

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4. Laboratories and collaborations with companies

For the vast majority of courses, the degree program includes a significant amount of practical and laboratory activities, especially in courses with a strong design-oriented component.

This approach allows students to consolidate the theoretical knowledge acquired through hands-on experience and experimental laboratory work, ensuring a more complete and applied learning process.

The Degree Program maintains an ongoing relationship with companies in the sector through research and development projects, in which students are involved via internships, thesis activities, and collaborations supported by research scholarships.

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5. Cariers and Employment Sectors

Careers and Employment Sectors

A graduate in Communications Engineering has access to a wide range of career opportunities due to the growing demand for professionals specialized in communication technologies. Below is an overview of the main careers and employment sectors:

Telecommunications Network Engineering

Telecommunications Network Designer
Plans and designs network infrastructures, both fixed (fiber optics) and mobile (LTE, 5G, etc.).

RF (Radio Frequency) Engineer
Designs and optimizes radio wave transmission and reception systems (e.g., antennas, cellular networks).

IoT (Internet of Things) Developer
Works on connected devices and systems, developing solutions for smart homes, industrial automation, and smart cities.

Software Engineer
Develops applications and systems for managing communication networks and devices.


Cybersecurity

Cybersecurity Specialist
Works on protecting networks and sensitive data from cyberattacks.

Network Security Analyst
Identifies vulnerabilities in communication systems and develops mitigation strategies.


Management and Consulting

ICT Project Manager
Coordinates projects for the implementation of new communication technologies in companies and institutions.

Telecommunications Consultant
Provides strategic support to companies for the digital transformation and optimization of network infrastructures.


Research and Development

Telecommunications Researcher
Conducts research on emerging technologies (5G/6G, satellite communications, optical networks, etc.) in universities, research centers, or industry.

Communication Algorithms Developer
Designs algorithms to optimize signal transmission and processing.


Emerging Fields

Artificial Intelligence Applied to Networks
Implements AI models to optimize communication networks and improve service quality.

Cloud Engineer
Designs and manages cloud infrastructures for real-time data transfer and processing.

Automotive Telecommunications Engineer
Works on connected vehicles, V2X (vehicle-to-everything) networks, and autonomous driving systems.

Smart Cities Telecommunications Engineer
Develops integrated solutions for connected urban infrastructures, including lighting and public transport systems.


Industrial Sectors

Telecommunications Companies
(e.g., TIM, Vodafone, Wind Tre, Ericsson, Huawei, Nokia) involved in the design and management of mobile and fixed networks.

IT and Cloud Companies
(e.g., Amazon Web Services, Google, Microsoft) providing cloud services and global network infrastructures.

Aerospace and Defense Sector
(e.g., Leonardo, Thales Alenia Space) working on satellite communications and radar systems.

Technology Start-ups
Focused on innovation in areas such as IoT, AI, and green telecommunications.


International Careers

The skills acquired enable graduates to access global opportunities, especially in:

  • 5G/6G mobile networks

  • Satellite communications

  • Network standardization bodies (e.g., 3GPP, IEEE)


Self-Employment

A telecommunications engineer can also work as an independent consultant, offering services in:

  • Design and certification of telecommunications systems

  • Optimization of corporate networks

  • Technical training and support

Employment statistics from AlmaLaurea confirm an excellent job placement rate for graduates of the Master’s Degree in Communications Engineering at the University of Catania.

  • Graduates’ Profile (see here). 
  • Employment Status of Graduates (see here). 

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