Program and Courses
Quantum Engineering
Program Overview
- Quantum Engineering Hardware (QEH) track focuses on experimental techniques relevant to quantum technology
- Quantum Engineering Software (QES) track focuses on theory, algorithms, and simulation
Degree Options
MS Thesis
Hardware Track (QEH)
Course Information
- PHGN519 – Fundamentals of Quantum Information
- EENG532 – Low Temperature Microwave Measurements for Quantum Applications
- PHGN535 – Interdisciplinary Silicon Processing Laboratory
- PHGN707 – Graduate Thesis / Dissertation Credit
Software Track (QES)
Course Information
- PHGN519 – Fundamentals of Quantum Information
- CSCI581 – Quantum Programming
- PHGN545 – Quantum Many-Body Physics
- PHGN707 – Graduate Thesis / Dissertation Credit
All classes are also available in the Academic Catalog.
MS Non-Thesis
Hardware Track (QEH)
Course Information
- PHGN519 – Fundamentals of Quantum Information
- EENG532 – Low Temperature Microwave Measurements for Quantum Applications
- PHGN535 – Interdisciplinary Silicon Processing Laboratory
Software Track (QES)
Course Information
- PHGN519 – Fundamentals of Quantum Information
- CSCI581 – Quantum Programming
- PHGN545 – Quantum Many-Body Physics
All classes are also available in the Academic Catalog.
Graduate Certificate
Hardware Track (QEH)
Course Information
- PHGN519 – Fundamentals of Quantum Information
- EENG532 – Low Temperature Microwave Measurements for Quantum Applications
- PHGN535 – Interdisciplinary Silicon Processing Laboratory
Software Track (QES)
Course Information
- PHGN519 – Fundamentals of Quantum Information
- CSCI581 – Quantum Programming
- PHGN545 – Quantum Many-Body Physics
All classes are also available in the Academic Catalog.
Graduate Electives
Beyond the required courses for each track, students will take one or more additional electives chosen from an extensive list of relevant courses (courses meant for the other track can also be used for these electives). The following list is continually updated as the curricula of the participating departments evolve.
Please note:
- Independent study and electives not on the list require approval from Dr. Meenakshi Singh, the QE Program Director
- Beginning Fall 2024, for incoming students, 400-level courses no longer count toward a Master’s degree.
Physics
PHGN520 | Quantum Mechanics I | 3 |
PHGN521 | Quantum Mechanics II | 3 |
PHGN530 | Statistical Mechanics | 3 |
PHGN550 | Nanoscale Physics and Technology | 3 |
PHGN566 | Modern Optical Engineering | 3 |
PHGN581 | Laser Physics | 3 |
PHGN585 | Nonlinear Optics | 3 |
Computer Science
CSCI542 | Simulation | 3 |
CSCI561 | Theory of Computation | 3 |
CSCI563 | Parallel Computing for Scientists and Engineers | 3 |
CSCI564 | Advanced Computer Architecture | 3 |
CSCI571 | Artificial Intelligence | 3 |
CSCI574 | Theory of Cryptography | 3 |
CSCI575 | Advanced Machine Learning | 3 |
CSCI580 | Advanced High Performance Computing | 3 |
Electrical Engineering
EENG509 | Sparse Signal Processing | 3 |
EENG517 | Modern Control Design | 3 |
EENG526 | Advanced Electromagnetics | 3 |
EENG528 | Computational Electromagnetics | 3 |
EENG529 | Active RF and Microwave Devices | 3 |
EENG530 | Passive RF and Microwave Devices | 3 |
EENG617 | Intelligent Control Systems | 3 |
EENG618 | Nonlinear and Adaptive Control |
Metallurgy and Materials Engineering
MTGN605 | Advanced Transmission Electron Microscopy | 2 |
MTGN605L | Advanced Transmission Electron Microscopy Lab | 1 |
MTGN656 | Advanced Electron Microscopy | 2 |
MTGN656L | Advanced Electron Microscopy Lab | 1 |
MTGN573 | Computational Materials | 3 |
Materials Science
MLGN502 | Solid State Physics | 3 |
MLGN515 | Electrical Properties and Applications of Materials | 3 |
MLGN583 | Principles and Applications of Surface Analysis Techniques | 3 |
MLGN593 | Bonding, Structure, and Crystallography | 3 |
Applied Mathematics and Statistics
MATH506 | Complex Analysis II | 3 |
MATH510 | Ordinary Differential Equations and Dynamical Systems | 3 |
MATH536 | Advanced Statistical Modeling | 3 |
MATH538 | Stochastic Models | 3 |
MATH550 | Numerical Solution of Partial Differential Equations | 3 |
MATH551 | Computational Linear Algebra | 3 |
Humanities, Arts and Social Sciences
HASS523 | Advanced Science Communications | 3 |
All classes are also available in the Academic Catalog.
Combined BS/MS
- BS Engineering Physics / MS Quantum Engineering – Hardware Track
- BS Engineering Physics / MS Quantum Engineering – Software Track
- BS Computer Science / MS Quantum Engineering (please consult with your advisor)
- BS Electrical Engineering / MS Quantum Engineering (please consult with your advisor)
Grad School Resources
Ready to apply?
Learn how you can apply for both undergraduate and graduate students.
Important dates
Make sure you’re ready for application deadlines, semester kick-offs and more.
Quantum Engineering Minor
With strong industry connections and hands-on learning experiences, this minor will give you the fundamentals required to understand entanglement in quantum information technologies and how it’s used for computation, communication and sensing while giving you the skills the workforce needs.
This interdisciplinary program will give undergraduates from chemistry, computer science, electrical engineering, mathematics, materials science and physics an introduction to the core concepts underlying quantum computing, communication and sensing. Students will gain experience with quantum hardware and theory that prepares them for careers in the rapidly evolving quantum engineering industries.
Requirements
The interdisciplinary minor in Quantum Engineering requires 18 credit hours.
QE minor students will be required to take:
Students may select an additional 2 courses from the list above or the list below (also available in the Academic Catalog) to further increase specialization:
- Physics:
- Computer Science:
- Metallurgy and Materials Engineering:
- Electrical Engineering:
- EENG307 – Introduction to Feedback Control Systems
- EENG383 – Microcomputer Architecture and Interfacing
- EENG385 – Electronic Devices and Circuits
- EENG411 – Digital Signal Processing
- EENG421 – Semiconductor Device Physics and Design
- EENG428 – Computational Electromagnetics
- EENG430 – Passive RF & Microwave Devices
- Applied Mathematics and Statistics
Frequently Asked Questions
Are GRE scores required to apply to the Quantum Engineering (QE) Master's program?
No, GRE scores are not required for either the QE Master’s Thesis or QE Master’s Non-Thesis. Submission of GRE scores is entirely optional.
To whom should I submit my academic credentials?
Please submit all academic credentials only via the online application.
Are teaching and research assistantships available?
Yes, teaching and research assistantships are available to qualified MS and PhD candidates in Mines’ interdisciplinary programs.
Does Mines offer a Quantum Engineering PhD?
No. Currently PhDs go only through the QE constituent departments.
Does Mines offer a Quantum Engineering Minor?
Yes, beginning with the Fall 2021 semester.
What types of courses should I take as an undergraduate that would allow myself to be viewed most favorably for admission to the Quantum Engineering program?
A science or engineering degree and successful completion of college-level linear algebra are required for admission. Successful completion of a number of elective courses is required for the QE MS Thesis, MS Non-Thesis, and Graduate Certificate options. Completion of prerequisites, or comparable courses, for the electives that you intend to take, prior to entering the program, is recommended. Please see the Electives section of this document for information on the various elective courses including prerequisites.
Application Info
For more information about admission to our program, application instructions, deadlines, selection criteria, and other aspects of the process, please see the Quantum Engineering Program Overview and Quantum Engineering Minor pages, refer to the FAQs and Grad Links sections of this document, and/or contact us at quantum@mines.edu.
Please submit credentials only via the online application.