Telecommunications Engineering

Description

This program trains professionals with skills to solve problems in information and communication technologies, through the design and evaluation of models in telecommunication systems and networks, using methodological tools and basic sciences.

Highlights

We offer a solid foundation in basic sciences, integrating theory and practice across various areas such as digital communications, computer networks, radio communications, and fiber optic networks. We focus on training professionals in scientific research and engineering, combining skills in

multidisciplinary approaches to continuously improve telecommunications services and networks. We work closely with telecommunications operators, which allows us to stay updated on advancements in the country and provide professional practice opportunities in operations.

General Information

Degree Awarded:	Telecommunications Engineer
Level:	Third Level
Duration:	10 semesters // 5 years
Mode of Study:	In-person
English Proficiency Requirement:	B1 // 10th semester

Professional Profile

Upon completing their training, graduates will be able to:

Design and implement telecommunications networks.
Design mobile applications.
Conduct studies for regulatory approval.
Design solutions for other disciplines.
Conduct scientific research.

Field of occupation

Telecommunications consulting.
Telecommunications network operator
Research in the relevant area
Telecommunications network design
Telecommunications network security

Curriculum Guide

Track 1 Track 2

DISCRETE MATHEMATICS
INTRODUCTION TO ENGINEERING
LANGUAGE AND TECHNICAL COMMUNICATION
LINEAR ALGEBRA
SINGLE VARIABLE CALCULUS

ELECTRICITY AND MAGNETISM
GENERAL PHYSICS
MULTIVARIATE CALCULUS
PROGRAMMING APPLIED TO ELECTRONICS AND TELECOMMUNICATIONS
RESEARCH METHODOLOGY

CIRCUITS THEORY
COMPUTER TOOLS FOR ENGINEERING
DIFERENTIAL EQUATIONS
NUMERICAL METHODS
OPERATING SYSTEMS

ANALOG ELECTRONICS
APPLIED MATHEMATICS : IT
ELECTROMAGNETIC THEORY I
MODERN PHYSICS
PROBABILITY AND STATISTICS : IT

COMMUNITY SERVICE PRACTICES I
COMPUTER NETWORKS
DIGITAL ELECTRONICS
ELECTROMAGNETIC THEORY II
LINEAR SYSTEMS AND SIGNALS
OPERATIONS RESEARCH

COMMUNITY SERVICE PRACTICES II
MICROPROCESSORS, MICROCONTROLLERS, AND EMBEDDED SYSTEMS
MODERN CONTROL THEORY
RADIO FREQUENCY CIRCUITS
STOCHASTIC SYSTEMS AND PROCESSES
VHDL PROGRAMMING

ANTENNA THEORY AND WAVE PROPAGATION
COMMUNICATIONS SYSTEMS
DIGITAL SIGNAL PROCESSING
ENTREPRENEURSHIP AND INNOVATION
NETWORK SECURITY
OPTICAL COMMUNICATIONS

DIGITAL COMMUNICATIONS
DIGITAL CONTROL
INFORMATION THEORY AND CODING
TELECOMMUNICATIONS NETWORKS
TELECOMMUNICATIONS PROJECTS PLANNING AND MANAGEMENT
WIRELESS NETWORKS

CURRICULAR CAPSTONE COURSE I
ELECTIVE I – INDUSTRIAL NETWORKS
ELECTIVE II – SUPERVISION AND CONTROL SYSTEMS
ENVIRONMENTAL MANAGEMENT IN TELECOMMUNICATIONS
MOBILE COMMUNICATIONS
PRE-PROFESSIONAL PRACTICES I

CURRICULAR CAPSTONE COURSE II
ELECTIVE III – ADVANCED INDUSTRIAL CONTROL
ELECTIVE IV – INDUSTRIAL NETWORK PROJECT
TELECOMMUNICATIONS PROJECTS PLANNING AND MANAGEMENT
TELECOMMUNICATIONS REGULATION

DISCRETE MATHEMATICS
INTRODUCTION TO ENGINEERING
LANGUAGE AND TECHNICAL COMMUNICATION
LINEAR ALGEBRA
SINGLE VARIABLE CALCULUS

ELECTRICITY AND MAGNETISM
GENERAL PHYSICS
MULTIVARIATE CALCULUS
PROGRAMMING APPLIED TO ELECTRONICS AND TELECOMMUNICATIONS
RESEARCH METHODOLOGY

CIRCUITS THEORY
COMPUTER TOOLS FOR ENGINEERING
DIFERENTIAL EQUATIONS
NUMERICAL METHODS
OPERATING SYSTEMS

ANALOG ELECTRONICS
APPLIED MATHEMATICS : IT
ELECTROMAGNETIC THEORY I
MODERN PHYSICS
PROBABILITY AND STATISTICS : IT

COMMUNITY SERVICE PRACTICES I
COMPUTER NETWORKS
DIGITAL ELECTRONICS
ELECTROMAGNETIC THEORY II
LINEAR SYSTEMS AND SIGNALS
OPERATIONS RESEARCH

COMMUNITY SERVICE PRACTICES II
MICROPROCESSORS, MICROCONTROLLERS, AND EMBEDDED SYSTEMS
MODERN CONTROL THEORY
RADIO FREQUENCY CIRCUITS
STOCHASTIC SYSTEMS AND PROCESSES
VHDL PROGRAMMING

ANTENNA THEORY AND WAVE PROPAGATION
COMMUNICATIONS SYSTEMS
DIGITAL SIGNAL PROCESSING
ENTREPRENEURSHIP AND INNOVATION
NETWORK SECURITY
OPTICAL COMMUNICATIONS

DIGITAL COMMUNICATIONS
DIGITAL CONTROL
INFORMATION THEORY AND CODING
TELECOMMUNICATIONS NETWORKS
TELECOMMUNICATIONS PROJECTS PLANNING AND MANAGEMENT
WIRELESS NETWORKS

CURRICULAR CAPSTONE COURSE I
ELECTIVE I – MULTIMEDIA COMMUNICATIONS
ELECTIVE II – WIRELESS SENSOR NETWORKS
ENVIRONMENTAL MANAGEMENT IN TELECOMMUNICATIONS
MOBILE COMMUNICATIONS
PRE-PROFESSIONAL PRACTICES I

CURRICULAR CAPSTONE COURSE II
ELECTIVE III – VEHICULAR AND HETEROGENEOUS NETWORKS
ELECTIVE IV – WIRELESS NETWORK PROJECTS
TELECOMMUNICATIONS PROJECTS PLANNING AND MANAGEMENT
TELECOMMUNICATIONS REGULATION

Description

Our Numbers

Number of students admitted in the academic period september 2025 – february 2026

Number of graduates in the 2024-2025 period

Number of students enrolled during the academic period march 2025 – august 2025

General Objective

To train professionals capable of applying basic sciences and using methodological tools for the solution of information and communication technology problems, through the design, improvement, implementation and evaluation of models and strategies for technological innovation in the area of telecommunication systems and networks.

Program Educational Objectives

Graduates of the Telecommunications Engineering program at Universidad de Cuenca will be able to achieve the following professional accomplishments within 3-5 years after graduation:

PEO 1: Train professionals who intervene creatively, responsibly and collaboratively in the design, implementation, provision and management of advanced and secure electronic and telecommunications systems that enable the development of the country through digital transformation and new technologies.
PEO 2: Design, plan, implement, evaluate and maintain telecommunications systems, such as fiber optic networks, mobile telephony, broadcasting, Wi-Fi, among others, applying cybersecurity and virtualization schemes that allow reliable communication, ensuring a smooth operation of multimedia voice, video and data applications, adapting the networks to the different connection requirements.
PEO 3: Promote the generation of new ideas and technologies in the professional field, as a result of prospective analysis or scientific research, to promote opportunities for new innovative project.

Student Outcomes

At the end of their studies, Telecommunications Engineering graduates are expected to achieve the following student outcomes:

SO1. An ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics.
SO2. An ability to apply engineering design to produce solutions that meet specified needs with consideration of public health, safety, and welfare, as well as global, cultural, social, environmental, and economic factors.
SO3. An ability to communicate effectively with a range of audiences.
SO4. An ability to recognize ethical and professional responsibilities in engineering situations and make informed judgments, which must consider the impact of engineering solutions in global, economic, environmental, and societal contexts.
SO5. An ability to function effectively on a team whose members together provide leadership, create a collaborative environment, establish goals, plan tasks, and meet objectives.
SO6. An ability to develop and conduct appropriate experimentation, analyze and interpret data, and use engineering judgment to draw conclusions.
SO7. An ability to acquire and apply new knowledge as needed, using appropriate learning strategies.