Quantum transport in mesoscopic systems
Summary
This course aims to introduce the transport behaviors of micron-size systems, emphasizing learning about recent path-breaking experiments on 2D systems such as Graphene and other vad der Waala materials. The course will also introduce the concept of topological protection and strong correlations.
Content
- Introduction to mesoscoscopic systems and semi classical transport equation
- One dimensional ballistic transport -Landauer-Buttiker formalism
- Topological effects - Interger and Fractional quanum Hall effect
- Fractionally charged particles and anyonic sttistics
- Chern insulators: Berry's phase, Haldane model and TKNN model
- Quantum dot: Clulomb blockade and charge transfer
- Introduction to Graphene: Pseudospin, Hamiltonian, Quantum Hall effect
- Superconductivity:BCS, BdG hamiltonian and Topological superconductivity
- Magic angle twisted graphene: Superconductivity and Corrrelated states
- Semiconducting van der Waals materials and strongly correlated phases of matter
- Introduction to recent significant experimental works
- Introduction to topological quantum computation
Keywords
Graphene, Topology, string correlation, superconductivity, quantum Hall effects
Learning Prerequisites
Required courses
Quantum mechanics I and II
Solid state I and II (not mandatory)
Learning Outcomes
By the end of the course, the student must be able to:
- Describe current research in the field of mesoscopic systems and quantum devices
- Use theoretical concepts to describe real quantum systems
- Formulate the challenges in the field of device physics and connect to quantum science and technology
Teaching methods
Lectures with student's participation and hands-on activities.
Expected student activities
Actively participate to all lectures by asking questions. Deliver a final presentation on modern research topic.
Assessment methods
Each student will be presenting one of the proposed papers during a final symposium.
Resources
Bibliography
Mesoscopic Physics: An introduction by C Harmans
Electronic transport in mesoscopic system by Supriyo Datta
Semiconductor Nanostructures by Thomas Ihn
Ressources en bibliothèque
Moodle Link
Dans les plans d'études
- Semestre: Printemps
- Forme de l'examen: Oral (session d'été)
- Matière examinée: Quantum transport in mesoscopic systems
- Cours: 2 Heure(s) hebdo x 14 semaines
- Exercices: 2 Heure(s) hebdo x 14 semaines
- Type: optionnel
- Semestre: Printemps
- Forme de l'examen: Oral (session d'été)
- Matière examinée: Quantum transport in mesoscopic systems
- Cours: 2 Heure(s) hebdo x 14 semaines
- Exercices: 2 Heure(s) hebdo x 14 semaines
- Type: optionnel
- Semestre: Printemps
- Forme de l'examen: Oral (session d'été)
- Matière examinée: Quantum transport in mesoscopic systems
- Cours: 2 Heure(s) hebdo x 14 semaines
- Exercices: 2 Heure(s) hebdo x 14 semaines
- Type: optionnel
- Semestre: Printemps
- Forme de l'examen: Oral (session d'été)
- Matière examinée: Quantum transport in mesoscopic systems
- Cours: 2 Heure(s) hebdo x 14 semaines
- Exercices: 2 Heure(s) hebdo x 14 semaines
- Type: optionnel
- Semestre: Printemps
- Forme de l'examen: Oral (session d'été)
- Matière examinée: Quantum transport in mesoscopic systems
- Cours: 2 Heure(s) hebdo x 14 semaines
- Exercices: 2 Heure(s) hebdo x 14 semaines
- Type: optionnel
- Semestre: Printemps
- Forme de l'examen: Oral (session d'été)
- Matière examinée: Quantum transport in mesoscopic systems
- Cours: 2 Heure(s) hebdo x 14 semaines
- Exercices: 2 Heure(s) hebdo x 14 semaines
- Type: optionnel
- Semestre: Printemps
- Forme de l'examen: Oral (session d'été)
- Matière examinée: Quantum transport in mesoscopic systems
- Cours: 2 Heure(s) hebdo x 14 semaines
- Exercices: 2 Heure(s) hebdo x 14 semaines
- Type: optionnel
Semaine de référence
Lu | Ma | Me | Je | Ve | |
8-9 | |||||
9-10 | |||||
10-11 | |||||
11-12 | |||||
12-13 | |||||
13-14 | |||||
14-15 | |||||
15-16 | |||||
16-17 | |||||
17-18 | |||||
18-19 | |||||
19-20 | |||||
20-21 | |||||
21-22 |