Teaching
Courses emphasize intuition, rigorous modeling, Python/Jupyter workflows, Qiskit, simulations, recorded modules, and no-cost materials through FIU's quantum-computing curriculum.
A complete sequence of quantum-computing lectures and assignments is available for instructors, students, independent learners, exam preparation, and technical interview review.
The repository includes self-contained Jupyter notebooks, current Qiskit examples, preserved figures, references, and progressively organized homework.
Undergraduate, graduate, special-topics, senior design, and dissertation research activities in quantum engineering and computational electromagnetics, including FIU's first undergraduate/graduate quantum-computing sequence.
Undergraduate introduction to quantum information concepts, circuits, gates, algorithms, and hands-on Qiskit workflows.
Recognized with FIU’s Affordability Counts medallion for eliminating required textbook costs.
Graduate-level quantum computing with deeper treatment of algorithms, noise, hardware constraints, and simulation.
Recognized with FIU’s Affordability Counts medallion for eliminating required textbook costs.
Numerical methods and computational modeling for electrical devices, fields, resonators, and engineering systems.
Special topics in quantum technologies, materials, photonics, sensing, and emerging electromagnetic platforms.
Advanced topics in light–matter interaction, nanophotonic resonators, metasurfaces, polaritons, and quantum optical systems.
Faculty mentorship of Low-Cost Air Quality Kit (Fall 2023–Spring 2024; five students) and Handheld Moisture Tomography Device for Wall Inspection (2026–present; four students). Student teams and projects.
Courses use Qiskit, Python, Jupyter notebooks, simulations, recorded modules, and no-cost materials to make quantum engineering practical, reproducible, and accessible.
Students practice technical reasoning, careful measurement, reproducible analysis, and clear scientific writing, with regular feedback and support for their career goals.
Projects begin with a focused research question and a reproducible baseline. Students test analytical and numerical predictions against measurements or independent calculations.
Lab notebooks, raw data, calibration details, code versions, and figure scripts make results traceable and help collaborators build on them.
Students develop figures, explain uncertainty, write methods, and present their findings through papers, seminars, posters, and research meetings.
Regular discussions cover technical progress, research choices, and practical obstacles. Mentoring also supports fellowship applications and moves to new academic and industry roles.
More than 70 recorded modules support quantum-computing and electromagnetics courses. Course improvements include recorded explanations, Python and Qiskit exercises, and Ansys HFSS simulation assignments.
Overall student ratings for EEL 6020 on FIU’s 5-point SPOT scale increased from 2.84 in Fall 2021 to 4.56 in Fall 2025, with a high of 4.68 in Fall 2024. Feedback informs worked examples, programming exercises, and laboratory tutorials.
The Quantum Computing Conceptual Survey was used in EEE 4423 in Spring 2026, with comparisons to 878 students in 59 courses at 46 institutions.
Selected public lectures and teaching videos connected to QTM Lab research and quantum engineering education.
Python, Jupyter notebooks, plotting, arrays, and computational habits for physics and engineering workflows.
Hands-on antenna simulation tutorial for electromagnetic modeling and RF design practice.
Lecture coverage of radiation concepts, antenna behavior, and practical electromagnetic interpretation.
Quantum-mechanics foundations for students entering quantum computing and quantum engineering.
Quantum-circuit elements, multi-qubit operations, and the role of entanglement in quantum information.
Algorithmic structure and circuit-level interpretation of quantum teleportation.
Invited lecture recorded for Polytechnique Montréal, connecting nonlinear platforms, Weyl semimetals, and quantum-compatible nonreciprocal response.
FIU KFSCIS seminar on scattering anomalies, embedded eigenstates, and quantum-relevant applications in resonant wave systems.
