University of Colorado Boulder
Program Overview & Curriculum
The MS-EE program and curriculum is built for flexibility. Choose from over 30 four-to-six week elective courses grouped into six focus areas:
Power electronics is a key enabling technology in essentially all electronic systems and is increasingly important in the grid interface of renewable energy sources and in efficient electrical loads. The necessity for power electronics technology in these rapidly expanding areas creates an increasing need for design engineers equipped with knowledge and skills to actively participate in multidisciplinary teams.
The MS-EE on Coursera's power curriculum addresses this demand for skilled power electronics design engineers, covering switching power supplies, DC-DC converters, inverters, power factor correction converters and LED lighting drivers. The power electronics curriculum emphasizes fundamentals and application in the power electronics field. This domain competency applies to end markets such as power management, portable power, computer systems, medical applications, spacecraft power systems, the automotive industry, renewable energy and the utilities.
Embedded system engineering is used in industries such as aerospace and defense, energy, industrial automation, health care, networking and communication, security, transportation and more. Embedded systems also drive the Internet of Things (IoT), enabling countless human-to-machine and machine-to-machine applications including home automation, security and more.
The MS-EE on Coursera's Embedded Systems Engineering curriculum covers essential embedded technologies, synthesizes foundational principles, and directly applies them to current tools and trends. It is structured to provide you with a broad, versatile and highly competitive skill set. We emphasize practical, project-based learning across hardware and embedded software design that addresses numerous end markets, as well as multiple semiconductor technologies including sensors, controllers, programmable devices, and development tools.
LEDs will light households powered by photovoltaic panels and filled with displays and cameras communicating by optical fiber to distant owners wearing virtual reality glasses. Laser 3D printing will transform manufacturing. New microscopes and telescopes will peer into the depths of living cells and distant galaxies.
The MS-EE on Coursera's photonics curriculum provides a firm theoretical foundation on the generation, modulation, radiative or guided transmission, sensing, and detection of optical signals. It also covers optical telecommunications, medical instrumentation, photovoltaic power generation, information processing, optical instruments, and environmental sensing. While some of these industries are mature, photonics continues to grow into new industries such as LED lighting and on-chip silicon photonics for multi-core CPUs.
Controls and Communications (not live yet)
The MS-EE on Coursera curriculum in digital communications helps lay the foundation for this wireless world. These courses prepare you for a career in reliable and high-speed data communications and data learning. Control techniques are used whenever a quantity (like speed, temperature or force, for instance) must be made to behave in some desirable way over time. In the modern world, the rapid evolution of technological demands imposes extremely challenging and widely varying control problems—problems we want to help you prepare to solve. The MS-EE controls curriculum explores topics such as developing controllers for aircraft, spacecraft, information storage systems, human-machine interfaces, manufacturing processes and power systems.
Electromagnetics, RF, Microwaves, and Remote Sensing (not live yet)
The electromagnetics, RF, microwaves and remote sensing curriculum in the MS-EE on Coursera invites you to explore an exciting electrical engineering field that engages topics such as active circuits and antennas for communications and radar, theoretical and numerical techniques for analysis of high-frequency circuits and antennas, RF photonics, artificial electromagnetic materials, and electromagnetic remote sensing.
Computer Engineering (not live yet)
Computer engineering encompasses a wide range of topics surrounding this interaction between hardware and software. Computer engineers of the future will be versatile full-stack developers, comfortable with understanding the technical depths of software development while also possessing a wide knowledge of the underlying hardware implementations. The MS-EE on Coursera curriculum in computer engineering emphasizes computer-aided verification and synthesis.
If you earn your MS-EE degree, you'll be able to:
- Pursue a new job, go after that promotion, or launch a career in electrical engineering.
- Keep pace with the rapid evolution of new technologies
- Apply foundational expertise and practical skills to solve real-world problems
- Work effectively across disciplines like embedded systems, power electronics, photonics and optics, and more
- Earn the same credentials on your diploma or transcript as the on-campus CU Boulder students.
Try a non-credit course today
Test your abilities and practice required skills by taking a non-credit course first. You can upgrade later to a for-credit course and pay tuition to earn standalone credit, a graduate certificate, or the full MS-EE degree.
Here are some courses you can start with:
The length of the program is dependent on what you're looking to accomplish. On average, you can expect the following time frames:
Earn a graduate certificate:
Earn a graduate degree:
Coursera on Mobile
Access all course materials anywhere with the mobile app, used by over 80 percent of degree students on Coursera. Available on iOS and Android.
Using the mobile app, you can:
- Save a week’s worth of content for offline access with one click
- Save and submit quizzes offline
- View text transcripts of lecture videos
- Take notes directly in the app
- Set reminder alerts to help you make progress
Download Coursera's mobile app
Coursera does not grant credit, and does not represent that any institution other than the degree granting institution will recognize the credit or credential awarded by the institution; the decision to grant, accept, or transfer credit is subject to the sole and absolute discretion of an educational institution.