EdX

Transmisión de energía eléctrica (edX)

Offered by Tecnológico de Monterrey, TecdeMonterreyX,
Transmisión de energía eléctrica (edX)

Aprende cómo se transmite y se distribuye la electricidad y cómo este conocimiento puede ser aplicado para maximizar la transmisión de energía eléctrica. Caso de estudio en el sistema eléctrico mexicano. El conocer la manera en que funciona el sistema eléctrico mexicano como caso de estudio genera competencias importantes en el mundo actual y permite tener conocimientos de distribución eléctrica que se pueden usar en otros países.

Class Deals by MOOC List - Click here and see EdX's Active Discounts, Deals, and Promo Codes.

Es por ello que en este curso enfocado en la energía te permite examinar el funcionamiento de una red de transmisión de energía eléctrica, desde las centrales generadoras en diferentes ubicaciones hasta los sistemas de distribución donde se debe de entregar la energía eléctrica.
En este curso en línea descubrirás cómo las líneas de transmisión interconectan diferentes centros de cargas y/o centrales, ya sea en condiciones normales o durante un estado de emergencia.
Al inscribirte, habrás tomado una buena decisión, pues te estarás formando en uno de los temas de más relevancia en el mundo: la transmisión y distribución de la energía eléctrica.
This course is part of the Sustentabilidad energética y la smart grid Professional Certificate.

What you'll learn
Analizar la manera en que la energía eléctrica puede ser transportada a través de la red general de transmisión
Examinar la transmisión de energía a través de casos típicos, diseños y parámetros predefinidos de líneas de transmisión
Proponer una estrategia para maximizar la transmisión de energía eléctrica entre una fuente de generación y un centro de consumo urbano

Syllabus

Tema 1. Descripción general de un sistema eléctrico de potencia
1.1. Generación
1.2. Líneas de transmisión
1.3. Transformadores
1.4. Cargas
Tema 2. Líneas de transmisión
2.1. Aisladores
2.2. Líneas de transmisión aéreas
2.3. Modelado de líneas de transmisión
2.4. Obtención de parámetros
Tema 3. Subestaciones eléctricas
3.1. Tipos de subestaciones
3.2. Conceptos básicos
3.3. Componentes de una subestación
3.4. Diseño de una subestación
Tema 4. Protecciones eléctricas
4.1. Introducción a las protecciones eléctricas
4.2. Relevadores
4.3. Esquemas de protección para subestaciones eléctricas
4.4. Esquemas de protección para líneas de transmisión
Tema 5. Análisis de fallas
5.1. Conceptos básicos
5.2. Fallas transitorias y permanentes
5.3. Componentes simétricas
5.4. Coordinación de aislamiento
Tema 6. La Red Nacional de Transmisión en México
6.1. Fundamento legal
6.2. Infraestructura actual del Sistema Eléctrico Nacional de México
6.3. Comportamiento de la demanda y consumo del Sistema Eléctrico Nacional mexicano
6.4. Obras de transmisión para el Mercado Eléctrico Mayorista

Go to Class
MOOC List is learner-supported. When you buy through links on our site, we may earn an affiliate commission.

Related Courses

Cybersecurity Policy for Water and Electricity Infrastructures (Coursera) Coursera
University of Colorado System

Cybersecurity Policy for Water and Electricity Infrastructures (Coursera)

Social Sciences

This course will examine the drinking water and electricity infrastructures, and various policies that have been developed to help guide and strengthen their cybersecurity programs. The drinking water and electricity infrastructures are two of fourteen subsectors comprising what are known as "lifeline infrastructure". The 2013 National Infrastructure Protection Plan identifies four lifeline infrastructure sectors: 1) water, 2) energy, 3) transportation, and 4) communications. These sectors are designated "lifeline" because many other infrastructures depend upon them.

Jul 27th 2026
4 Weeks
Water Electricity Cybersecurity
Details
Electrical Industry: Production and Economics (FutureLearn) FutureLearn
University of Padova

Electrical Industry: Production and Economics (FutureLearn)

Engineering Business

Understand how the electricity system has developed over time, see what the future holds and the need to move to decarbonisation. Discover how electricity is produced and exchanged and the reasons behind it. This innovative, three-week course from the University of Padova is designed to illustrate how electricity is produced, and exchanged, and why.

Self Paced
4 Weeks
Electricity Electricity Management Renewable Energy Sources
Details
Cadena de bloques e internet de las cosas (edX) EdX
Galileo University,GalileoX

Cadena de bloques e internet de las cosas (edX)

Sci: Energy & Earth Sciences

Con el uso de las tecnologías digitales emergentes, el proceso de transición energética puede ser más eficiente, seguro y sostenible. Entre estas tecnologías, se encuentra blockchain e internet de las cosas. Por lo que, en este curso, aprenderás sobre los fundamentos de estas tecnologías y como impactan la cadena de valor del sector eléctrico.

Self Paced
Self-Paced
Electricity Digital Technology Energy Transition
Details
Outsmarting intermittency (Coursera) Coursera
École Polytechnique

Outsmarting intermittency (Coursera)

Engineering Sci: Physics

Solar and wind offer clean and renewable ways to produce large amounts of electricity. They have boomed over the last few years, evolving from an eco-daydream to a major market and showing unprecedented growth rates. Yet, installing solar panels and wind turbines is by no means the end of the story. The electrical grid, which connects production means to the end-users’ sockets, is not a simple electron pipe. It is the beating heart of our electricity system and ensures its stability. Solar and wind raise specific challenges for the grid, and these challenges will have to be tackled if we want to deploy larger amounts of renewable sources.

Aug 3rd 2026
4 Weeks
Electricity Renewable Energy Solar Energy
Details
Renewable Energy: Sustainable Electricity Supply with Microgrids (FutureLearn) FutureLearn
University of Leeds

Renewable Energy: Sustainable Electricity Supply with Microgrids (FutureLearn)

Sci: Environment

Explore approaches to electrification, microgrids, and how to harness this form of renewable energy to achieve sustainability. Learn and assess different electrification approaches from around the world. On this two-week course, you will learn how electricity is generated globally and explore different approaches to electrification. You will then learn technical aspects of electrification options via a national grid, off grid, micro and mini grids and reflect on the barriers to affordable, clean and fair access to electricity.

Self Paced
2 Weeks
Sustainability Electricity Renewable Energy
Details
Renewable Power and Electricity Systems (Coursera) Coursera
University of Colorado Boulder

Renewable Power and Electricity Systems (Coursera)

Engineering Sci: Physics

The energy revolution in underway. Renewable energy is growing at an astounding pace - notably in electricity. Wind turbines and solar photovoltaic (PV) systems account for most new power plants built worldwide, and are essential to building a low-carbon and sustainable energy future. As a result, there are countless new opportunities in renewable electricity.

Aug 3rd 2026
5-12 Weeks
Electricity Renewable Energy Sustainable Energy
Details
Electrodynamics: In-depth Solutions for Maxwell’s Equations (Coursera) Coursera
Korea Advanced Institute of Science and Technology - KAIST

Electrodynamics: In-depth Solutions for Maxwell’s Equations (Coursera)

Engineering

This course is the fourth course in the Electrodynamics series, and is directly proceeded by Electrodynamics: Electric and Magnetic Fields. Previously, we have learned about visualization of fields and solutions which were not time dependent. Here, we will return to Maxwell's Equations and use them to produce wave equations which can be used to analyze complex systems, such as oscillating dipoles. We will also introduce AC circuits, and how they can be simplified, solved, and applied.

Aug 17th 2026
5-12 Weeks
Electricity Magnetism Magnetic
Details
Distribución de la energía eléctrica (edX) EdX
Tecnológico de Monterrey,TecdeMonterreyX

Distribución de la energía eléctrica (edX)

Engineering Science

Aprende las formas en que la energía eléctrica se distribuye al usuario final por medio de la infraestructura eléctrica existente. Conoces los procesos que se requieren para llevar la energía eléctrica desde el lugar donde se genera (plantas eléctricas) hasta el lugar donde la necesitas?, ¿sabes cómo funciona una red de distribución? En este curso en línea obtendrás las respuestas, ya que conocerás las formas en las que la energía eléctrica se distribuye al usuario final por medio de la infraestructura existente.

Self Paced
Self-Paced
Electricity Electrical Engineering Energy Distribution
Details
Principles of Modeling, Simulations, and Control for Electric Energy Systems (edX) EdX
MIT,MITx

Principles of Modeling, Simulations, and Control for Electric Energy Systems (edX)

Sci: Physics Sci: Environment

Apply a dynamic systems-level approach and engage emerging research on efficient, sustainable, and physically and economically feasible electric power systems of the future. As global energy demand grows, to mitigate climate change we must drive a swift transition to clean energy resources and enhanced electric power grid infrastructure. In this course, you will explore systemic principles of future electric power system management, such as the role of smart grids, data-enabled machine learning, power electronics-control, and data-driven decision-making.

No session available
5-12 Weeks
Energy Renewable Energy Sustainable Energy
Details
Semiconductors for Beginners (edX) EdX
National University of Singapore,NUS

Semiconductors for Beginners (edX)

Engineering Sci: Physics

The primary goal of the course is to enable the student to understand what semiconductors are, and why they are important to the electronics industry. Students will first learn and understand why some materials are insulators and others are conductors, and will learn how these properties can be modified. The course also explores other situations where the conductivity of an insulator can be drastically changed, such as the situation inside a bolt of lightning or inside a semiconductor.

Self Paced
Self-Paced
Electricity Semiconductors Light
Details