Electrical and Computer Engineering (MSECE)

Is Electrical and Computer Engineering for you?

Do any of the following describe you?

• Fascinated by how electronic systems and devices function.
• Love tackling complex technical challenges and finding solutions.
• Enjoy building and experimenting with circuits and computing systems.
• Passionate about staying up-to-date with the latest technological advances.
• Thrive in collaborative environments and enjoy working on team-based projects.

Do these jobs sound interesting to you?

Our alumni are:

• AI and Machine Learning
• Renewable Energy
• Cybersecurity
• Wireless Communications
• Bioinstrumentation
• Electrical Engineer
• Computer and Systems Engineer
• Computer Hardware Engineers

Other possibilities are:

• Embedded Systems Engineer
• Robotics Engineer
• Network and Computer Systems Administrators
• Sales Engineers

Is this the kind of salary you are seeking?

Data from the U.S. Bureau of Labor Statistics, shows the following outlook for Electrical and Computer Engineering:

Median Pay
$104,610/year

Job Outlook
Up 9% (much faster that the average)

Environment
Private and public sector settings

What if my bachelor’s isn’t in Electrical and Computer Engineering?

Even if your undergraduate degree is in a different field, you can still pursue this degree. Reach out to your graduate coordinator for more information.

How long will it take?

• The MS in Electrical and Computer Engineering is a 30-unit program
• A student starting with all prerequisites completed can complete the MS in two years full-time or three years part-time
• Students will take 12 units of core curriculum and then will have a choice of 18 units including a thesis, project, or culminating activity, must be in Electrical and Computer Engineering (EECE) courses; remaining units may be selected from electrical or computer engineering or in related areas with the approval of the Graduate Coordinator

Dynamic and Close-Knit Academic Community

• From your first day, you’ll dive into labs equipped with cutting-edge software and hardware, working on real-world applications under the guidance of expert faculty.
• You can expect to engage in hands-on learning experiences that blend theory with real-world application, working closely with faculty who are experts in their fields.

Personalized Attention and Skill Development

• Small class sizes foster individualized attention and collaboration with peers and faculty, allowing you to enhance critical thinking, problem-solving, and research skills in fields like robotics and embedded systems.
• There is a strong emphasis on practical skills and research, so students have opportunities to work on advanced projects, often with cutting-edge technology.

Interdisciplinary and Career-Driven Focus

• The program encourages interdisciplinary collaboration, aligning with sustainability and innovation trends, preparing students for careers in cutting-edge industries like renewable energy and advanced computing systems.

Research Labs and Facilities

Explore your passions using state-of-the-art equipment, whether you’re interested in smart electronics, circuits, solar energy, or AI. Access tools like 3D printers, biomedical imaging devices, and the latest networking software to push the boundaries of your research.

Research Opportunities

Collaborate with renowned professors on cutting-edge projects in fields like renewable energy, optical imaging, artificial intelligence, and computer architecture. In the Optical Imaging & Intelligent Processing (OIIP) Lab, you’ll work on developing algorithms for image processing, machine learning, and deep learning, used in healthcare, robotics, and beyond.

Capstone Opportunities 

You’ll display your acquired skills and innovation to complete a capstone project. Some recent examples of student projects include an adaptation of electromyography for VR gaming and the development of a self-stabilizing spoon for patients with Parkinson’s.