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Electrical Engineering

Doctor of Philosophy

Delivery Options

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Fall 2026 Deadline

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

Why study this degree at Mines?

Electrical engineering drives how modern systems sense, compute, communicate and operate. From power and electronics to communications and embedded systems, the field underpins nearly every engineered technology. As systems grow more complex and performance expectations rise, organizations need experts who can move beyond standard designs, develop new methods and generate results that stand up to technical scrutiny.

A PhD in Electrical Engineering from Colorado School of Mines prepares you to lead at that level. This doctorate degree is designed for engineers who want to create new knowledge and influence how electrical systems are designed and deployed. Mines is known for applied engineering, and that perspective shapes the doctoral experience. Your research remains grounded in physical reality, measurable performance, and real constraints, while pushing the boundaries of current practice.

If you are motivated by deep technical challenges and want your work to matter beyond the laboratory, this program provides the rigor, independence, and credibility needed to do that work well.

Program Overview

The Electrical Engineering PhD is an on‑campus doctoral program housed in the Department of Electrical Engineering. It is designed for engineers who want to conduct original, research‑driven work that advances electrical engineering theory and practice.

This program builds on your bachelor’s degree or master’s degree by shifting your role from applying existing techniques to developing new ones. You deepen your understanding of electrical systems while gaining the independence needed to define and execute a substantial research project. Coursework is flexible and selected to support your dissertation research.

What you’ll study and do:

You will complete advanced coursework in electrical engineering fundamentals along with specialized electives aligned to your research focus. Areas of study may include power systems, power electronics, control systems, signal processing, communications, microelectronics, or embedded systems. Courses emphasize analytical rigor and design reasoning so you can justify engineering decisions clearly.

The core of the Electrical Engineering PhD program is independent research. You identify a research problem, develop new models, devices, or methods, and evaluate them through analysis, simulation, and experimentation. You work closely with a faculty advisor and committee while progressing through proposal, candidacy, and dissertation defense milestones.

What it takes to complete the PhD at Mines

Completion of the PhD requires advanced coursework, successful completion of qualifying and candidacy requirements and a defended dissertation that makes an original contribution to electrical engineering. As an on-campus program, the experience emphasizes active participation in research groups, seminars and collaboration across disciplines.

You and Mines PhD: A Right Fit?

You may be a strong fit for this program if you:

  • Enjoy deep technical analysis and system-level thinking
  • Like designing, building or modeling electrical systems
  • Have strong preparation in electrical engineering or a closely related field

Key Program Research Groups

Electrical Engineering research at Mines spans devices, systems and methods that connect theory to practice.

Power systems and power electronics

This area focuses on how electrical power is generated, converted and delivered. Research includes system modeling, control and hardware design. Coursework builds advanced circuit and system knowledge, while research methods may include simulation and experimental validation. Careers include power engineering, system design and technical research roles.

Control systems and robotics

Research here examines how dynamic systems are modeled and controlled. Topics include feedback control, system stability and autonomous behavior. Methods combine mathematical analysis, simulation and experimentation. Graduates pursue roles in automation, robotics and advanced system design.

Signal processing and communications

This field studies how information is represented, transmitted and interpreted. Research may involve signal analysis, communication systems and data-driven methods. Coursework emphasizes theory and application, while research blends analysis and computation. Career paths include communications engineering, data-focused roles and research positions.

Microelectronics and device engineering

Research in this area focuses on electronic devices, circuits and fabrication-related topics. Work may involve device modeling, circuit design and performance evaluation. This expertise supports careers in electronics design, manufacturing and R&D

Embedded and cyber-physical systems

Many projects integrate hardware and software into tightly coupled systems. Research emphasizes reliability, performance and real-time behavior. Methods include system design, testing and validation. Graduates often move into roles that bridge hardware, software and system integration.

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.

Faculty Expertise

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

Career Outlook

Median salary for recent graduates of this program is $150,000. Learn more about Mines' comprehensive career development resources and this degree's salary potential.

Explore Mines Career Center

Employers who seek Mines graduates include

Power, electronics and technology companies

Companies such as Siemens, ABB, Schneider Electric, General Electric, Eaton

Semiconductor and electronics firms

Companies such Intel, Texas Instruments, NVIDIA, Qualcomm

Research organizations and national laboratories

Organizations such as National Laboratory of the Rockies (NLR), Sandia National Laboratories, Los Alamos National Laboratory, Lawrence Livermore National Laboratory

Engineering and defense organizations

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

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Frequently Asked Questions

Why pursue a PhD in Electrical Engineering?

A PhD in Electrical Engineering prepares you to create new knowledge, methods, and technologies rather than applying existing designs. Through independent research, you develop the ability to frame complex engineering problems, select appropriate analytical or experimental tools, and defend conclusions with evidence.

This level of training is essential if you want to lead advanced research efforts, shape emerging technologies, or pursue academic and research‑driven careers. A doctoral degree also positions you for technical leadership roles that require deep system understanding and long‑term decision‑making.

At Colorado School of Mines, the PhD experience emphasizes applied rigor, ensuring your work connects theory to real systems and engineering constraints.

How research‑intensive is the Electrical Engineering PhD program?

Research is the central focus of the Electrical Engineering PhD. While coursework builds advanced theoretical and analytical foundations, most of your time is dedicated to original dissertation research. You are expected to: - Identify and define a meaningful research problem - Develop new models, hardware, systems, or methods - Evaluate results through analysis, simulation, and experimentation - Contribute new understanding to the field This structure reflects professional research environments in industry, government, and academia.

What career paths are available after completing a PhD in Electrical Engineering?

Graduates pursue careers in research and development, advanced engineering practice, national laboratories, and academic institutions. Many also move into technical leadership roles where independent judgment and system‑level expertise are critical. Common career paths include: - Research and development engineer - Systems or principal engineer - Technical lead or research manager - Faculty or academic researcher - Engineer or scientist at national laboratories The PhD also prepares you for roles where you guide long‑term technical strategy rather than short‑term implementation.

Do you need a master’s degree to apply to the PhD program?

A master’s degree is helpful but not required. Successful applicants typically demonstrate strong preparation in electrical engineering or a closely related field and show readiness for independent research. Applicants entering with a bachelor’s degree should have a solid foundation in core electrical engineering topics and a clear interest in research‑driven study.

How does Mines’ applied focus influence the PhD experience?

Mines emphasizes engineering research that works in practice. Doctoral research is often shaped by real systems, measurable performance constraints, and implementation considerations. This applied approach means: - Research problems are grounded in physical reality - Methods balance theory with validation - Outcomes remain relevant to industry, government, and applied research settings As a result, graduates leave with research experience that translates beyond academic contexts while maintaining scholarly rigor.

Featured Alumni

Profile photo of Brett Shearer, MS '22, Electrical Engineering program graduate.

Brett Shearer, MS '22

"If you are interested in Electrical Engineering (EE), Mines will give you a first-rate EE education and prepare you for anything you could want to do in the field. I would also strongly encourage any student to actively participate in the Mines and EE communities. If you genuinely participate and become part of the community, you will have a list of great experiences, great friends and great mentors on top of a great education!"