Introduction to Nano-physics
203-1-3321
Course information
- Credit points
- 3.50
- Lecture hours
- 3.00
- TA hours
- 1.00
- Lab hours
- 0.00
Summary
The purpose of this course is to provide a broad survey of current research in the fields of (i) optical studies of semiconductor quantum nanostructures, including device applications and (ii) quantum transport in mesoscopic and nanostructure systems with a main focus on quantum dots. The following topics will be addressed:Growth of strained quantum dots, self-assembly
Optical properties of quantum wells and quantum dots
Two-dimensional electron gases in field-effect transistors
Quantum Interference Effects in Transport Properties
Phase coherence, Dephasing and environmental coupling
Localization: weak localization and Anderson transition
The Quantum Hall Effect
Conduction in channels: Landauer's formulas, quantum point contacts
Coulomb blockade and single electron transistor
Spin qubits, quantum computation
Syllabus
The purpose of this course is to provide a broad survey of current research in the fields of (i) optical studies of semiconductor quantum nanostructures, including device applications and (ii) quantum transport in mesoscopic and nanostructure systems with a main focus on quantum dots. The following topics will be addressed:- Growth of strained quantum dots, self-assembly
- Optical properties of quantum wells and quantum dots
- Two-dimensional electron gases in field-effect transistors
- Quantum Interference Effects in Transport Properties
- Phase coherence, Dephasing and environmental coupling
- Localization: weak localization and Anderson transition
- The Quantum Hall Effect
- Conduction in channels: Landauer's formulas, quantum point contacts
- Coulomb blockade and single electron transistor
- Spin qubits, quantum computation
מבוא לננופיסיקה
203-1-3321
תקציר
ראה סילבוס לועזי.סילבוס
The purpose of this course is to provide a broad survey of current research in the fields of (i) optical studies of semiconductor quantum nanostructures, including device applications and (ii) quantum transport in mesoscopic and nanostructure systems with a main focus on quantum dots. The following topics will be addressed:- Growth of strained quantum dots, self-assembly
- Optical properties of quantum wells and quantum dots
- Two-dimensional electron gases in field-effect transistors
- Quantum Interference Effects in Transport Properties
- Phase coherence, Dephasing and environmental coupling
- Localization: weak localization and Anderson transition
- The Quantum Hall Effect
- Conduction in channels: Landauer's formulas, quantum point contacts
- Coulomb blockade and single electron transistor
- Spin qubits, quantum computation
Last changed on April 25, 2022 by Bar Lev, Yevgeny (ybarlev)