**DYNAMICS of QUANTUM SYSTEMS**

**Lecture Notes: Mesoscopic Physics meets Quantum Engineering**

**Landau-Zener-Stuckelberg-Majorana (LZSM) Interferometry**

**Amplitude- and Phase-Modulated Quantum Dot**

**Quantum Inductance and Capacitance**

If a quantum system is included in a circuitry, it should be described in terms of the probabilities of energy level occupations. The system is then characterized by respective parametric inductances, capacitances, and resistances. Due to their dependencies on probabilities, they are also attributed the adjective “quantum”. We exploited such theory for the description of artificial few-level systems [12][13].

See also coverage of related work in the media [14].

**Mirror, mirror: a transmon qubit in**

**a semi-infinite transmission line**

**Multi-Photon Transitions**

**Thermometry with Qubit-Resonator System**

**Simulating Quantum Dynamics by Mechanical Resonator**

**Dynamics of Graphene Membranes**

**Qubit-Based Memcapacitors and Meminductors**

**Dressed States**

**Delayed-Response Quantum Back Action**