Semiconductor and Quantum Materials and Devices Option
This option focuses on the science, design, and manufacturing of electronic and quantum devices using conventional and modern semiconducting, insulating, and conducting materials. The foundational and technical electives prepare students for careers in the areas of semiconductor manufacturing, electronic communications, 2D materials, neuromorphic computing, quantum processing, defect analysis in electronic materials, and electronic thin films, for example. They also prepare students interested in applications of biological materials and devices such as wearable and/or stretchable sensors and health monitoring. Students in this option can find employment at companies such as Intel, Samsung, Micro, AMD, Motorola, Texas Instruments, and any company working on semiconductor devices or next generations of quantum processing.
The core FE courses represent foundational electives for SQMD. The student must select a minimum of 2 of these courses. The alternate FE courses provide pathways to specialties within EPQMD and form the foundation for the listed technical electives. As with all our options, a student can petition another course for either the core, alternate FE, or the TE. One or more members approve these of our undergraduate curriculum committee.
The Foundational Elective (FE) courses aim to provide some flexibility in the junior year while maintaining a high level of technical content (i.e., not intro/overview courses), providing a breadth of topics covered, and supporting potential deeper study in the senior year.
A total of five FE courses are required. Some courses on these lists are suitable as Technical Electives, but each class can be used to fill one degree requirement. At most one 100-level course may be used.
Core FE (6-12 cr.)
- ESC 400H: Electromagnetic Fields
- ESC 419: Electronic Properties and Applications of Materials
- Enforced Prerequisite at Enrollment: ESC 312
- ESC 337: Introduction to Quantum Information Science and Engineering
- ESC 313: Introduction to Principles, Fabrication Methods, and Application of Nanotechnology
- ESC 481: Elements of Nano/Micro-electromechanical Systems Processing and Design
Recommended Alternate FE (0-6 cr.)
- AERSP 308H: Mechanics of Fluids or alternate from ME, BME, CHEME, EME
- CHEM 112: Chemical Principles II
- CHEM 210: Organic Chemistry I
- CMPEN 270: Digital Design: Theory and Practice
- CMPEN 331: Computer Organization and Design
- CMPSC 122: Intermediate Programming
- CMPSC 221: Object Oriented Programming with Web-Based Applications
- CMPSC 311: Introduction to Systems Programming
- CMPSC 312: Computer Organization and Architecture
- CMPSC 360: Discrete Mathematics for Computer Science
- EE 310: Electronic Circuit Design
- EE 320: Introduction to Electro-Optical Engineering
- EE 340: Introduction to Nanoelectronics
- EE 350: Continuous-Time Linear Systems
- ESC 386: Engineering Principles of Living Organisms
- ESC 482: Micro-Optoelectromechanical Systems (MOEMS) and Nanophotonics
- EGEE 302: Principals of Energy Engineering
- EGEE 304: Heat and Mass Transfer
- ENGR 320: Materials Properties Measurement I
- MATSE 201: Introduction to Materials Science
- MATSE 202: Introduction to Polymer Materials
- MATSE 259: Properties and Processing of Engineering Materials
Recommended Technical Electives (9-12 cr)
Technical electives are from biomedical engineering, chemistry, computer science and engineering, electrical engineering, energy engineering, engineering science and mechanics, materials science and engineering, math, and physics.
- BME 402: Biomedical Instrumentation and Measurements
- BME 406: Medical Imaging
- BME 409: Biofluid Mechanics
- BME 410: Biomedical Applications of Microfluidics
- BME 413: Mass Transport in Biological Systems
- BME 419: Artificial Organs and Prosthetic Devices
- BME 423: Reaction Kinetics of Biological Systems
- BME 443: Biomedical Materials
- BME 444: Surfaces and the Biological Response to Materials
- BME 445: Tissue Engineering: Concepts, Calculations and Applications
- CHEM 212: Organic Chemistry II
- CHEM 402: Chemistry in the Environment
- CHEM 406: Nuclear and Radiochemistry
- CHEM 452: Physical Chemistry - Quantum Chemistry
- CHEM 466: Molecular Thermodynamics
- CHEM 472: General Biochemistry I
- CMPEN 416: Digital Integrated Circuits
- CMPEN 417: Digital Design Using Field Programmable Devices
- CMPEN 431: Introduction to Computer Architecture
- CMPEN 441: Operating Systems
- CMPEN 454: Fundamentals of Computer Vision
- CMPEN 455: Digital Image Processing
- CMPEN 461: Communication Networks
- CMPEN 471: Logical Design of Digital Systems
- CMPEN 472: Microprocessors and Embedded Systems
- CMPEN 475: Functional Verification
- CMPSC 402: UNIX and C
- CMPSC 421: Net-centric Computing
- CMPSC 426: Object-oriented Design
- CMPSC 428: Programming in Ada
- CMPSC 430: Database Design
- CMPSC 431W: Database Management Systems
- CMPSC 436: Communications and Networking
- CMPSC 438: Computer Network Architecture and Programming
- CMPSC 441: Artificial Intelligence
- CMPSC 442: Artificial Intelligence
- CMPSC 448: Machine Learning and Algorithmic AI
- CMPSC 450: Concurrent Scientific Programming
- CMPSC 456: Introduction to Numerical Analysis II
- CMPSC 458: Fundamentals of Computer Graphics
- CMPSC 459: Scientific Visualization
- CMPSC 461: Programming Language Concepts
- CMPSC 462: Data Structures
- CMPSC 463: Design and Analysis of Algorithms
- CMPSC 464: Introduction to the Theory of Computation
- CMPSC 465: Data Structures and Algorithms
- CMPSC 467: Factorization and Primality Testing
- CMPSC 469: Formal Languages with Applications
- CMPSC 471: Introduction to Compiler Construction
- CMPSC 473: Operating Systems Design & Construction
- CMPSC 474 Operating System & Systems Programming
- CMPSC 479: Language Translation
- EE 413: Power Electronics
- EE 416: Digital Integrated Circuits
- EE 417: Digital Design Using Field Programmable Devices
- EE 420: Electro-optics: Principles and Device
- EE 422: Optical Engineering Laboratory
- EE 424: Principles and Applications of Lasers
- EE 430: Principles of Electromagnetic Fields
- EE 432: RF and Microwave Engineering
- EE 438: Antenna Engineering
- EE 439: Radiowave Propagation in Communications
- EE 441: Semiconductor Integrated Circuit Technology
- EE 442: Solid State Devices
- EE 450: Signal and Image Processing
- EE 453: Fundamentals of Digital Signal Processing
- EE 454: Fundamentals of Computer Vision
- EE 455: An Introduction to Digital Image Processing
- EE 456: Introduction to Neural Networks
- EE 458: Digital Image Processing and Computer Vision
- EE 460: Communication Systems II
- EE 461: Communications I
- EE 471: Introduction to Plasmas
- EE 472: Space Astronomy and Introduction to Space Science
- EE 474: Satellite Communications Systems
- EE 477: Fundamentals of Remote Sensing Systems
- EE 481: Control Systems
- EE 483: Introduction to Automation and Robotics Systems
- EE 484: Control System Design
- ESC 417: Electrical and Magnetic Properties
- ESC 445: Semiconductor Optoelectronic Devices
- ESC 450: Synthesis and Processing of Electronic and Photonic Materials
- ESC 456: Introduction to Neural Networks
- ESC 475: Particulate Materials Processing
- ESC 482: Micro-Optoelectromechanical Systems (MOEMS) and Nanophotonics
- ESC 483: Simulation and Design of Nanostructures
- ESC 484: Biologically Inspired Nanomaterials
- MATSE 400: Crystal Chemistry
- MATSE 402: Materials Process Kinetics
- MATSE 410: Phase Relations in Materials Systems
- MATSE 412: Thermal Properties of Materials
- MATSE 413: Solid-State Materials
- MATSE 417: Electrical and Magnetic Properties
- MATSE 421: Corrosion Engineering
- MATSE 422: Thermochemical Processing
- MATSE 430: Materials Characterization
- MATSE 435: Optical Properties of Materials
- MATSE 436: Mechanical Properties of Materials
- MATSE 483: Simulation and Design of Nanostructures
- MATH 450: Mathematical Modeling
- PHYS 406: Subatomic Physics
- PHYS 410: Introduction to Quantum Mechanics I
- PHYS 411: Introduction to Quantum Mechanics II
- PHYS 412: Solid State Physics I
- PHYS 414: Solid State Physics
- PHYS 419: Theoretical Mechanics
- PHYS 421W: Research Methods in Physics
- PHYS 443: Intermediate Acoustics
- PHYS 457W: Experimental Physics
- PHYS 458: Intermediate Optics
- PHYS 461: Theoretical Mechanics
- PHYS 462: Applications of Physics in Medicine
- PHYS 472: Elements of Nuclear Physics and its Applications to Medical Imaging and Treatments
Senior Thesis (6 cr)
Undergraduate Options
- Overview
- Experimental Mechanics and Materials Option
- Materials and Design in Manufacturing Option
- Micro- and Nano-structured Devices for Biological and Biomedical Applications Option
- Neural Engineering Option
- Semiconductor and Quantum Materials and Devices Option
- Signals, Systems, and Sensing Option
- Theoretical and Computational Mechanics Option
- Acoustics Option
- Self-designed Option
-
Semiconductor and Quantum Materials and Devices Option
- Core FE
- Recommended Alternate FE
- Recommended Technical Electives
- Senior Thesis