EEE 4423: Introduction to Quantum Computers
Undergraduate introduction to quantum information concepts, circuits, gates, algorithms, and hands-on Qiskit workflows.
Teaching
Quantum engineering education at FIU
Courses emphasize intuition, rigorous modeling, Python/Jupyter workflows, Qiskit, simulations, recorded modules, and no-cost materials through FIU's quantum-computing curriculum.
Courses and Mentoring
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.
EEE 6429: Advanced Quantum Computers
Graduate-level quantum computing with deeper treatment of algorithms, noise, hardware constraints, and simulation.
EEL 6020: Numerical Analysis of Electrical Devices
Numerical methods and computational modeling for electrical devices, fields, resonators, and engineering systems.
EEL 6931: Quantum Technologies and Materials / Special Topics
Special topics in quantum technologies, materials, photonics, sensing, and emerging electromagnetic platforms.
Quantum Nanophotonics Special Topics
Advanced topics in light–matter interaction, nanophotonic resonators, metasurfaces, polaritons, and quantum optical systems.
Senior Design and Dissertation Research
Mentored projects in simulation, measurement, documentation, quantum devices, metamaterials, and technical writing.
Teaching Tools
Courses use Qiskit, Python, Jupyter notebooks, simulations, recorded modules, and no-cost materials to make quantum engineering practical, reproducible, and accessible.
Research Practice Taught in the Lab
QTM Lab training emphasizes the daily habits that turn coursework and early projects into reproducible research.
Use the Research Loop
Define the question, explain why it matters, reproduce a known baseline, choose the smallest testable step, analyze carefully, and write while the result is fresh.
Document Everything
Record raw data, parameters, software versions, code commits, assumptions, units, boundary conditions, calibration notes, and figure-generation scripts.
Build Professional Outputs
Progress is measured through evidence: validated simulations, calibrated measurements, clean figures, shared notes, draft sections, abstracts, code, datasets, and manuscripts.
Write Early
Start with the motivation, outline, related work, methods, and figure plan. A strong paper grows from a clear sequence of figures and controls.
Prepare for Meetings
Each research meeting should answer four questions: what was done, what was found, what blocks progress, and what will happen next.
Featured YouTube Lectures
Selected public lectures and teaching videos connected to QTM Lab research and quantum engineering education.
QTM Krasnok YouTube Channel
Introduction to Python for Physics
Dipole and Yagi-Uda Antennas in ANSYS HFSS
Parallel-Plate Capacitor in ANSYS Maxwell 3D
Electromagnetism, Electrostatics, and Capacitors
Electromagnetic Radiation and Antennas
Six Postulates of Quantum Mechanics
Quantum Circuits, Two-Qubit Operations, and Entanglement
Quantum Teleportation Algorithm
Quantum Nonreciprocity with Nonlinearity and Weyl Semimetals
Scattering Anomalies: Recent Breakthroughs and Quantum Applications
Introduction to Python for Physics
Python, Jupyter notebooks, plotting, arrays, and computational habits for physics and engineering workflows.
Dipole and Yagi-Uda Antennas Using ANSYS HFSS
Hands-on antenna simulation tutorial for electromagnetic modeling and RF design practice.
Electromagnetic Radiation and Antennas
Lecture coverage of radiation concepts, antenna behavior, and practical electromagnetic interpretation.
Six Postulates of Quantum Mechanics
Quantum-mechanics foundations for students entering quantum computing and quantum engineering.
Quantum Circuits, Two-Qubit Operations, and Entanglement
Quantum-circuit elements, multi-qubit operations, and the role of entanglement in quantum information.
Quantum Teleportation Algorithm
Algorithmic structure and circuit-level interpretation of quantum teleportation.
Quantum Nonreciprocity with Nonlinearity and Weyl Semimetals
Invited lecture recorded for Polytechnique Montréal, connecting nonlinear platforms, Weyl semimetals, and quantum-compatible nonreciprocal response.
Scattering Anomalies: Recent Breakthroughs and Quantum Applications
FIU KFSCIS seminar on scattering anomalies, embedded eigenstates, and quantum-relevant applications in resonant wave systems.