Physical Foundations of Superconductivity and Its Applications in Quantum Computing
This course provides an introduction to superconductivity, one of the most important quantum phenomena at the macroscopic scale. It covers concepts such as the Meissner effect, BCS theory, and the Josephson effect, and introduces their connections to superconducting circuits, quantum bits, and technologies such as Circuit QED. With a focus on a deep understanding of physical concepts, this course serves as a suitable starting point for those interested in condensed matter physics, quantum information, and emerging technologies.
- Category
- Quantum computer hardware
- Status
- Upcoming
Course overview
This course provides an opportunity to explore one of the most fascinating and practical branches of modern physics; a field where the fundamental concepts of quantum mechanics manifest as observable phenomena at the macroscopic scale. Superconductivity is a remarkable example of the emergence of quantum behavior on a large scale, and studying it creates a bridge between fundamental physics and advanced technologies. A distinctive feature of this course is its emphasis on a deep understanding of physical concepts rather than merely presenting mathematical relations.
Course details
- Start date
- 11/23/2026
- End date
- 12/7/2026
- Registration deadline
- 11/22/2026
Who is this course for?
- Students and researchers in the fields of: Physics Electrical Engineering, Computer Engineering, Photonics, Nanotechnology, Other fields related to quantum technologies
- Individuals who intend to enter research and industrial fields related to: Quantum computing Superconducting, systems, Quantum engineering
Course objectives
- Familiarity with the physical foundations of superconductivity and its key properties (zero resistance, Meissner effect)
Course syllabus
- 1
Fundamentals of Superconductivity and Physical Properties
Introduction to superconductivity Key properties of superconductivity Meissner effect London equations Concept of penetration depth - 2
Microscopic Theory of Superconductivity
Electron–phonon interaction Formation of Cooper pairs BCS theory Order parameter and energy gap Coherence length Josephson effect Josephson junctions - 3
From Superconductivity to Quantum Circuits
Elements of superconducting circuits LC circuits and quantum harmonic oscillator The role of Josephson junctions in creating circuit nonlinearity Quantization of superconducting quantum circuits
Course instructors
- M
Mohammad Kazem Negahdari
Instructor
Enroll in this course
- Start date
- 11/23/2026
- Register by
- 11/22/2026
- Sessions
Frequently asked questions
Who is this course suitable for?
This course is designed for students and researchers in physics, electrical engineering, photonics, nanotechnology, and those interested in quantum technologies. It is also suitable for master's and PhD students who intend to enter the fields of superconducting circuits and quantum computing.
Are there any specific prerequisites for attending this course?
A background in quantum mechanics, electromagnetism, and analytical mechanics at the undergraduate level is recommended. Basic knowledge of solid-state physics is also beneficial; however, the fundamental concepts of superconductivity will be reviewed from the beginning.
