Dr. Park's research is centered at discovering new optical phenomena and applications using nanoscale materials and structures and has currently three major thrusts: nonlinear optical devices, biosensing/therapeutics and magnetic field sensor. For nonlinear optical devices, Dr. Park is developing devices based on chalcogenide glass for operations in the infrared region for sensing, communications, and switching. For biosensing and therapeutics, Dr. Park is developing nanomaterials that efficiently upconvert frequencies and thereby enable new imaging, sensing and/or therapeutic approaches. For magnetic field sensing, Dr. Park is developing magneto-optical nanomaterials that can rotate light polarization under a magnetic field with potential application in magnetic imaging.
BMEN 6519 - Special Topics
Primary Instructor
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Fall 2023
Credit hours and subject matter to be arranged. May be repeated up to 12 total credit hours.
ECEA 5610 - Foundations of Quantum Mechanics
Primary Instructor
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Spring 2022 / Summer 2022 / Fall 2022 / Spring 2023 / Summer 2023 / Fall 2023
Introduces essential concepts and tools of quantum mechanics to engineering graduate students who may not have undergraduate level quantum mechanics background. Topics to be discussed include the concepts of quantum states, operators and measurements, one-dimensional potential problems, time evolution of quantum systems and ensembles of identical particles. Recommended restriction: Knowledge of undergraduate-level differential equations and linear algebra.
ECEA 5611 - Theory of Angular Momentum
Primary Instructor
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Spring 2022 / Summer 2022 / Fall 2022 / Summer 2023
Introduces the quantum mechanical concept of angular momentum operator and its relationship with rotation operator. It then covers the properties of the angular momentum operators and their eigenvalues and eigenfunctions. Finally, it offers an in-depth discussion on the theory of angular momentum addition. Recommended restriction: Knowledge of undergraduate-level differential equations and linear algebra.
ECEA 5612 - Approximation Methods
Primary Instructor
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Spring 2022 / Summer 2022 / Fall 2022 / Spring 2023 / Summer 2023
Introduces commonly used approximation methods in quantum mechanics. They include time-independent perturbation theory, time-dependent perturbation theory, tight binding method, variational method and the use of finite basis set. In each case, a specific example is given to clearly show how the method works. Recommended restriction: Knowledge of undergraduate-level differential equations and linear algebra.
ECEA 5630 - Semiconductor Devices: Semiconductor Physics
Primary Instructor
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Spring 2020 / Summer 2020 / Fall 2020 / Spring 2021 / Summer 2021 / Fall 2021 / Spring 2022 / Summer 2022 / Fall 2022 / Spring 2023 / Summer 2023 / Fall 2023
Semiconductor Physics introduces the basic concepts in quantum theory of solids and presents the theory describing the carrier behaviors in semiconductors.
ECEA 5631 - Semiconductor Devices: Diode: pn junction and metal semiconductor contact
Primary Instructor
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Spring 2020 / Summer 2020 / Fall 2020 / Spring 2021 / Summer 2021 / Fall 2021 / Spring 2022 / Summer 2022 / Fall 2022 / Spring 2023 / Summer 2023 / Fall 2023
Presents in-depth discussion on pn junction and metal-semiconductor contact including the equilibrium behavior, current and capacitance responses under bias, breakdown, non-rectifying behavior and surface effect.
ECEA 5632 - Semiconductor Devices: Transistor: Field Effect Transistor and Bipolar Junction T
Primary Instructor
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Spring 2020 / Summer 2020 / Fall 2020 / Spring 2021 / Summer 2021 / Fall 2021 / Spring 2022 / Summer 2022 / Fall 2022 / Spring 2023 / Summer 2023 / Fall 2023
Presents in-depth discussion on metal-oxide-semiconductor field effect transistor (MOSFET) and bipolar junction transistor (BJT) including the equilibrium characteristics, modes of operation, switching and current amplifying behaviors.
ECEN 3250 - Microelectronics
Primary Instructor
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Fall 2019 / Fall 2020 / Fall 2023
Develops a basic understanding of active semiconductor devices. Focuses on building an understanding of BJT and CMOS devices in both digital and analog applications.
ECEN 3400 - Electromagnetic Fields and Waves
Primary Instructor
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Fall 2018 / Spring 2022
Electromagnetic fields are covered at an introductory level, starting with electrostatics and continuing with DC current, magnetostatics, time-varying magnetic fields, waves on transmission lines, Maxwell's equations and the basics of plane waves. The use of fields in inductors, capacitors, resistors, transformers, and energy and power concepts are studied.
ECEN 5345 - Introduction to Solid State Physics
Primary Instructor
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Spring 2023
Provides an introduction to the electronic, photonic and phononic properties of solid state materials and devices. Covers optical constants, free electron gas, plasmons, energy bands, semiconductors and doping, excitons, quantum wells, phonons and electrooptical effects. Makes use of quantum mechanical methods. Department enforced prerequisite: basic quantum mechanics.
ECEN 5355 - Principles of Electronic Devices 1
Primary Instructor
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Spring 2018
Relates performance and limitations of solid state devices to their structures and technology. Examines semiconductor physics and technology. Includes Pn-junction, Mos, and optoelectronic devices. For both advance circuit and device engineers. Recommended prerequisite: ECEN 3320.
ECEN 5915 - Foundations of Quantum Engineering
Primary Instructor
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Fall 2021
Introduces engineers to quantum theory. In this course you will learn how to describe many different physical systems (such as atoms, electrons, light, mechanical oscillators, and tops) mathematically. It also explores different notions of quantumness such as entanglement and non-contextuality. The foundations obtained in this course are important for further study of quantum hardware (sensors), communication, and computing. Same as ECEN 4915.
