Education & Pedagogy
For me, teaching is not the passive transmission of information, but the active cultivation of curiosity, disciplined inquiry, and scientific temperament. I believe science education must integrate conceptual rigor with contemporary relevance. From foundational engineering physics to advanced quantum mechanics and quantum computing, my approach emphasizes analytical thinking, model-building, and intellectual independence rather than rote learning.
My goal is to help students ask better questions, think holistically, and develop the confidence to engage meaningfully with emerging technologies and complex global challenges.
Introduction to quantum mechanics, LASER and Optical Fiber, and Quantum Computing for upper-level undergraduates.
Course Syllabus →Advanced topics in quantum mechanics including perturbation theory, scattering theory, and relativistic quantum mechanics. Special focus on applications to modern research.
Course Syllabus →Advanced topics in quantum mechanics including perturbation theory, scattering theory, and relativistic quantum mechanics. Special focus on applications to modern research.
Course Syllabus →Innovative course developing scientific reasoning, problem framing, hypothesis testing, and creative approaches to research challenges.
Fall 2023
Foundational physics for engineering students covering mechanics, electromagnetism, optics, and modern physics with emphasis on applications.
Fall & Spring 2022, 2023
Graduate-level course covering XRD, μSR, PPMS, SQUID, and other advanced techniques for characterizing quantum and functional materials.
Current
Comprehensive notes for all major courses, available to students
Recorded lectures and supplementary explanations
Python notebooks and simulation software for hands-on learning
Curated problem sets with solutions for self-study