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Electrical Engineering (Thesis)

Masters of Science

Delivery Options

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Fall 2026 Deadline

Priority: December 15th
Domestic: July 1st
International: March 1st

Program Overview

The Electrical Engineering master’s thesis program at Colorado School of Mines builds on your bachelor’s degree by developing advanced technical depth and research experience in electrical systems, devices, and computation. This thesis‑based program is designed for engineers who want to move beyond application‑level work and understand how electrical technologies are analyzed, designed, and improved at a deeper level.

You will strengthen skills in circuit analysis, signal processing, electromagnetics, control systems, and computational methods. Electrical engineering remains central to industries that depend on reliable power, communication systems, sensing technologies, and intelligent devices. Employers value engineers who can apply theory with precision and adapt to complex technical environments.

What distinguishes Mines is its applied, engineering‑first approach. Through the thesis requirement, you pursue original research in close collaboration with faculty and graduate with experience that reflects how advanced electrical engineering work is conducted in industry and research settings. This degree prepares you for high‑impact technical roles or further doctoral study.

Program Details

This on‑campus master’s thesis program combines advanced coursework with independent research. You take graduate‑level courses in areas such as electrical circuits, signals and systems, electromagnetics, controls, electronics, and computational methods. Course selection allows you to tailor your academic plan around your research interests while maintaining a strong electrical engineering core.

The thesis is a central component of the degree. Working with a faculty advisor, you define a research problem, carry out analytical, experimental, or computational work, and communicate your results through a written thesis and oral defense. Research topics often connect electrical engineering theory to real‑world systems and applied technologies.

This program is well suited if you are seeking deep technical expertise, hands‑on research experience, and preparation for advanced professional practice or doctoral study.

Program Opportunities

Research‑driven learning:

You engage in faculty‑led research that applies electrical engineering principles to practical systems and technologies.

Interdisciplinary collaboration:

Electrical engineering research at Mines often intersects with computer science, mechanical engineering, applied physics, and other engineering disciplines.

Laboratory and system experience:

You gain hands‑on experience with hardware platforms, modeling tools, and system‑level analysis methods central to advanced electrical engineering work.

Program Faculty

Meet three accomplished faculty leaders in power systems, smart grids and control theory who deliver the applied knowledge you need to drive innovation in the energy and technology sectors.

Qiuhua Huang profile picture

Qiuhua Huang

Associate Professor

Yamuna Phal profile picture

Yamuna Phal

Asst Professor

Katie Johnson profile picture

Katie Johnson

Professor

Application Requirements

  • Bachelor's degree

  • GRE: Not Required

  • Letters of Recommendations (3 letters).
    Letters are not required for current Mines students or Mines alumni.

  • Resume or Curriculum Vitae (CV)

  • Statement of Purpose

  • Transcripts

  • International students please review the English proficiency requirements

Program Curriculum

View Academic Catalog

World-Class Labs, Centers & Facilities

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Antennas, RFID and Computational Electromagnetics Group

The Antenna, RFID, & Computational Electromagnetics (ARC) Lab is equipped with advanced antenna test equipment, RFID development kits and computers with GPUs that can handle fast electromagnetic simulations and designs. Research in this lab, which also includes an antenna chamber that can perform far-field and near-field measurements, is led by Professor Atef Elsherbeni.

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Power, Intelligence and Computing Lab

The Power, Intelligence and Computing (PIC) Lab works to enable and accelerate electricity-centric energy system digitalization and decarbonization through convergence of physics, AI, computing and control. Led by Associate Professor Qiuhua Huang, the research group focuses on power system modeling and simulation, AI for power and energy systems, and electrification.

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Electronics Discovery Center

The Electronics Discovery Center is a state-of-the-art electronics laboratory open to electrical engineering students of all levels. Located in the heart of the Electrical Engineering Department in Brown Hall, this newly renovated, student-centered space is designed for hands-on learning, collaboration and innovation. Use the lab to complete coursework, pursue independent research, prototype new ideas and bring Capstone Design projects to life. With roughly half of all Capstone Design projects each year involving electrical engineering students, the Electronics Discovery Center serves as a hub where classroom concepts become real-world solutions.

Career Outlook

Median salary for recent graduates of this program is $96,600. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

Explore Mines Career Center

Employers who seek Mines graduates include

Technology and electronics
Companies such as Intel, Texas Instruments, NVIDIA, Qualcomm, Analog Devices
Engineering and systems

Companies such as Lockheed Martin, Boeing, Raytheon, Northrop Grumman, General Electric

Energy and industrial organizations

Companies such as Siemens, ABB, Schneider Electric, Eaton, Rockwell Automation

Consulting and professional services

Companies such as Accenture, Deloitte, Jacobs, WSP, Black & Veatch

Government and national laboratories
Such as National Laboratory of the Rockies, Los Alamos National Laboratory, Sandia National Laboratories, Lawrence Livermore National Laboratory, National Institute of Standards and Technology
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Frequently Asked Questions

What is the value of a master’s degree in electrical engineering?

A master’s degree in electrical engineering provides advanced technical depth and research experience that strengthens your ability to design, analyze, and improve complex electrical systems. Through a thesis‑based program, you gain experience moving from established methods to original analysis and problem solving.

This degree is especially valuable if you want to:

  • Deepen expertise beyond undergraduate coursework
  • Work on complex systems involving hardware, computation, and control
  • Develop research skills used in advanced engineering roles
  • Prepare for doctoral study or research‑driven career paths

At Colorado School of Mines, the applied focus of the program ensures your research and coursework stay connected to real engineering challenges.

What advances are shaping electrical engineering today?

Electrical engineering continues to evolve as systems become more connected, automated, and computation‑driven. Engineers are increasingly expected to work across hardware, software, and system‑level design.

Key developments influencing the field include:

  • Increased integration of computation with physical hardware
  • Growing system‑level complexity and automation
  • Expanded use of sensing, communication, and data‑enabled technologies
  • Demand for reliable, efficient, and scalable system design

This program prepares you to engage with these changes through advanced study and applied research.

What career opportunities are available with this graduate degree?

Graduates of the electrical engineering master’s thesis program pursue advanced technical and research‑focused roles across many industries. Common positions include electrical engineer, systems engineer, hardware engineer, controls engineer, and research engineer.

The research experience gained through the thesis also supports roles that require:

  • Independent technical judgement
  • System‑level analysis and design
  • Leadership in complex engineering environments

Many graduates continue on to doctoral programs or research‑intensive positions in industry, government, or national laboratories.

What industries hire individuals with a master’s degree in electrical engineering?

Electrical engineers with advanced training are in demand across a broad range of industries where complex systems and reliable performance are essential.

Hiring sectors include:

  • Electronics and semiconductor technology
  • Aerospace and defense systems
  • Energy and industrial operations
  • Manufacturing and automation
  • Engineering consulting and technical services
  • Government and national research laboratories

The analytical and research skills developed in this program translate across both commercial and research settings.

What types of research are common in this program?

Graduate research in electrical engineering at Mines often connects theory with real‑world systems and applications. Research topics vary based on faculty expertise and student interests.

Common areas include:

  • Circuits and electronic systems
  • Signal processing and systems analysis
  • Electromagnetics and wave phenomena
  • Control systems and automation
  • Applied hardware development and computational modeling

Research may involve analytical work, laboratory experimentation, simulation, or a combination of approaches, all guided by close collaboration with faculty advisors.

Featured Alumni

Julieta Giraldez, MS '22

Julieta Giraldez, M.S. Electrical Engineering, launched her career at the National Laboratory of the Rockies (formerly the National Renewable Energy Laboratory) and has gone on to leadership roles in grid planning and energy systems. Today, she is helping shape the future of a cleaner, more resilient electric grid. “When I was introduced in college to the big system that delivers power to our houses called the power grid, it blew my mind. I enjoy working to make the power grid cleaner and more sustainable. I enjoy working with other nerdy scientists and engineers.”