Educational Program

The education program consist of two parts:

QT Future courses (EX - experiment, TH - theory)

Our goal is to present modern science in the context of its background, consisting of the most important original works of the XX century.

• 2D van der Waals heterostructures: state-of-the-art & perspectives (EX)          RECORDS (June 2024)    Presentations: Part 1     Part 2    Part 3    Part 4

• Fabrication of nanostructures and nanoscale devices (EX)   (autumn 2023)

• Modern random matrix theory and  connections to many – body – localization (TH)

• Quantum transport and topology (TH)           RECORDS (June 2024)

• (Symmetry-Protected) Topological Order (TH)        RECORDS (June 2024)

• Quantum mechanics of open systems: functional integral methods (TH)

• Basics of Green function technique and its applications

Short lecture series (Summer School 2024): 

• Unconventional Josephson effects in conventional nanostructures (EX) 

• Basics of quantum transport (TH) 

• Physical consequences  of wave-function's multifractality (TH)

• Single flux quantum (SFQ) technologies (EX)

• Scanning Tunneling Microscopy and Spectroscopy (EX) Presentations: Part 1   Part 2   Part 3

• Frustration-free Models and beyond (TH)

• Graphene Quantum Hall Effect: Broken Symmetry States, Interferometry and Superconducting Hybrids (EX) Presentations: Part 1   Part 2   Part 3

• Exactly Solvable Quantum Circuits: from Integrability to Chaos (TH) 

• Aspects of Many-body Quantum Chaos (TH)

• SYK and Quantum Chaos (TH)

• Nuclear Spins in Solid-state Quantum Devices: Usage and Perspectives (EX)

• TLS & Decoherence (EX)                  TLS & Decoherence (TH)  

• Simulations of physics problems by faulty quantum computers (TH)

• Probing spin states near the surface of quantum materials (EX) one lecture

• Experimental signatures of quantum spin liquids (EX)  one lecture

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University of Ljubljana Syllabus : see Syllabus section at the end of this web page, and Curricula for orientations. Briefly, the major portion of required 240 credits consists of research (180) and presentation of dissertation theme (15). Classroom learning includes compulsory elements (course + seminar, 18 credits totally) and elective courses (18 credits). The choice of courses must be supported by the supervisor and approved by the FMF Department of Physics Study Board, but there are many degrees of freedom.