Advanced Quantum Electronics and Quantum-Information Theory
Quantum dots and superconducting junctions are basic elements of circuits for quantum electronics and quantum-information processing. This course provides an overview of key approaches for their theoretical description following two intertwined, parallel tracks:
Track 1 focuses on basic circuits and solves these using statistical / quantum-field techniques.
Track 2 develops the general theory of open quantum systems using the tools of quantum-information.
The course is self-contained for students with a solid background in quantum mechanics, statistical physics, and basics of quantum theory of many-particle systems.
Quantum electronics: superconducting junctions and quantum dots
- Quantization of electric circuits: charge and phase, reactive elements, fluctuations, noise
- Dissipative elements: open quantum systems, Caldeira-Legget model, dynamical Coulomb blockade
- Quantum field theory of transmission lines: microwave photons, input-output formalism
- Nonlinear elements: superconducting qubits, quantum-dot spin qubits
Track 2: Quantum information:
open quantum systems
- Entanglement, purification, quantum measurements
- Density operators: Hilbert-Schmidt / Liouville space
- Open-system dynamics: quantum operations / channels, superoperators, Kraus formalism, quantum master equations
- Approximate master equations: Lindblad, quantum jumps
- State-operation correspondence (Jamiolkowski-Choi)
- Graphical representations of superoperators
For more details, you can also refer to the university calender:
Please note that the first lecture on Tuesday, April 10 begins at 1pm.
Tues. 12.30pm - 2pm
4273 (MBP2 116)
10.04.2018 - 17.07.2018 (13 dates)
|Wed. 12.30pm - 2pm||4273 (MBP2 116)||11.04.2018 - 18.07.2018 (13 dates)|
Thurs. 2pm - 3.30pm
|4273 (MBP2 116)||12.04.2018 - 19.07.2018 (12 dates)|