Dr. rer. nat. Frank Deppe

Phone: +49 89 289-14211
Room: –
E-Mail: frank.deppe@mytum.de
Links: Homepage
Page in TUMonline
Groups: Technical Physics
TUM Department of Physics
Job Title: PD at the Physics Department
Consultation Hour: auf Anfrage - on request

Courses and Dates

SS 2020 WS 2019/20 SS 2019 WS 2018/9

Title and Module Assignment
Art	SWS	Lecturer(s)	Dates
Advances in Solid State Physics Assigned to modules: PH1302: Fortschritte in der Festkörperphysik / Advances in Solid State Physics PH1450: Fortschritte in der Festkörperphysik für Bachelorstudierende / Advances in Solid State Physics for B.Sc. Students
PS	2	Deppe, F. Gross, R. Hübl, H. Assisstants: Althammer, M.Geprägs, S.	Tue, 10:15–11:45, WMI 143
Superconducting Quantum Circuits Assigned to modules: PH1322: Supraleitende Quantenschaltkreise / Superconducting Quantum Circuits
PS	2	Deppe, F. Fedorov, K. Gross, R. Marx, A.	Tue, 14:30–16:00, WMI 143
Walther-Meißner-Seminar on Topical Problems of Low Temperature Physics Assigned to modules: PH6044: Walther-Meißner-Seminar über aktuelle Fragestellungen der Tieftemperatur-Festkörperphysik / Walther-Meißner-Seminar on Topical Problems of Low Temperature Physics
SE	2	Althammer, M. Deppe, F. Einzel, D. Gross, R. Hackl, R. … (insgesamt 8)	Fri, 11:00–12:30, WMI 143

Offered Bachelor’s or Master’s Theses Topics

Korrelationen in einem supraleitenden Bose-Hubbard-Dimer

Nonlinear superconducting quantum circuits are famous for quantum computing. In addition, they allow one to model artificial matter in a bottom-up approach in the laboratory. At WMI, we have recently implemented a Bose-Hubbard dimer with tunable on-site nonlinearity. Depending on your preferences and abilities, you can participate in measurements or numerical/analytical simulations on expected phase transitions.
Keywords: Superconducting quantum circuits; Quantum simulation; Bose-Hubbard model

suitable as

Master’s Thesis Condensed Matter Physics
Master’s Thesis Applied and Engineering Physics
Master’s Thesis Quantum Science & Technology

Supervisor: Rudolf Gross

Quanten-Illumination und -Sensorik mit Mikrowellen

Quantum microwaves emitted by superconducting circuits can be used for distributed quantum computation or improved quantum illumination/radar. You will join the Quantum Flagship activities on the latter, working towards the demonstration of a quantum advantage in a laboratory setting.

Keywords: Quantum microwaves, quantum communication, quantum illumination, quantum radar

suitable as

Master’s Thesis Condensed Matter Physics
Master’s Thesis Applied and Engineering Physics
Master’s Thesis Quantum Science & Technology

Supervisor: Frank Deppe