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Advanced Practical Training (QST)

Module PH1034

This module handbook serves to describe contents, learning outcome, methods and examination type as well as linking to current dates for courses and module examination in the respective sections.

Basic Information

PH1034 is a semester module in English language at Master’s level which is offered every semester.

If not stated otherwise for export to a non-physics program the student workload is given in the following table.

Total workloadContact hoursCredits (ECTS)
180 h 60 h 6 CP

Responsible coordinator of the module PH1034 is the Dean of Studies at Physics Department.

Content, Learning Outcome and Preconditions

Content

The Advanced Practical Training (APT) involves completing a selection of tasks offered and supervised by the experimental and theoretical research groups participating in the QST Master’s program. The APT offers opportunities for gaining some familiarity with the research interests of the associated research groups, thus facilitating future decisions regarding choices of specialization or topics for Master's theses.

Depending on its topic and scope, a task is worth either 1 or 2 units. The corresponding contact hours are 10 hours and the total workload are 30 hours per unit. Students have to complete tasks with a combined value of 6 units. At least 2 units must stem from experimental tasks and at least 2 from theoretical ones.

Learning Outcome

After participation in the Module the student is able to:

  1. Understand and describe the physical, mathematical or computational principles underlying the chosen tasks.

  2. Perform independent measurements or computations using the methods employed during the execution of the chosen tasks.

Preconditions

No prerequisites beyond the requirements for the Master’s program in Quantum Science and Technology.

Courses, Learning and Teaching Methods and Literature

Courses and Schedule

TypeSWSTitleLecturer(s)DatesLinks
PR 2 FOPRA Experiment 32: Tensor-Network Simulations of Bound States in Perturbed Quantum Ising Chains Pollmann, F.
Assistants: Drescher, M.Lin, S.
documents
PR 2 FOPRA Experiment 33: Kitaev's Honeycomb Lattice Model: An Exactly Soluble Quantum Spin Liquid Knolle, J.
Assistants: Leeb, V.
documents
PR 2 FOPRA Experiment 34: Simulating Quantum Many-Body Dynamics on a Current Digital Quantum Computer Knap, M. documents
PR 1 FOPRA Experiment 38: Lieb-Robinson Bounds and Applications König, R. Warzel, S. Wolf, M.
Assistants: Schulz, S.
documents
PR 1 FOPRA Experiment 39: Universal Gate Sets for Quantum Computation König, R. Warzel, S. Wolf, M.
Assistants: Schulz, S.
documents
PR 1 FOPRA Experiment 41: Entanglement-Breaking Evolutions König, R. Warzel, S. Wolf, M.
Assistants: Schulz, S.
documents
PR 2 FOPRA Experiment 44: Bell's Inequality and Quantum Tomography Weinfurter, H. documents
PR 2 FOPRA Experiment 46: Luminescence of Quantum Dots Högele, A. documents
PR 1 FOPRA Experiment 01: Ballistic Transport (Pinball with Electrons) Finley, J.
Assistants: Fust, S.
current
PR 1 FOPRA Experiment 15: Quantum Information Using Nitrogen-Vacancy Centers In Diamond Brandt, M.
Assistants: Todenhagen, L.Vogl, D.
PR 1 FOPRA Experiment 16: Josephson Effects in Superconductors Gross, R.
Assistants: Chen, Q.Nojiri, Y.
current
PR 1 FOPRA Experiment 23: Ferromagnetic Resonance (FMR) Back, C.
Assistants: Korniienko, A.Pietanesi, L.
PR 1 FOPRA Experiment 24: Field-Effect Transistor (MOSFET) Finley, J.
Assistants: Strohauer, S.Thurn, A.
current
PR 1 FOPRA Experiment 37: Symmetries in Exfoliated 2D Quantum Materials Holleitner, A.
Assistants: Micevic, A.Nisi, K.
documents
PR 1 FOPRA Experiment 43: Semidefinite Programming in Quantum Information Theory König, R. Warzel, S. Wolf, M.
Assistants: Schulz, S.
documents
PR 2 FOPRA Experiment 47: Laser Spectroscopy documents

Learning and Teaching Methods

The module consists of three to six tasks, comprising a total of 6 units.

For each task, introductory material will be made available in the form of notes or references to pertinent books or publications. Supplementary material will offer guidance for executing experimental or theoretical tasks. Supervisors will offer assistance where needed. Some tasks can be performed only individually, others also in groups of two or three students.

Every task involves four parts:

  1. Preparation – studying introductory material.

  2. Execution – performing an experimental or theoretical task.

  3. Report – summarizing the main methods and results in writing.

  4. Discussion – answering questions posed by an examiner.

Media

Blackboard, presentations (slides), handouts.

Literature

For each task, a set of introductory and supplementary notes will be made available, including references to relevant books and publications.

Module Exam

Description of exams and course work

The module is examined by a laboratory assignment in form of a pass/fail requirement consisting of three to six tasks. Depending on its topic and scope, a task is worth either 1 or 2 units. Students have to complete tasks with a combined value of 6 units. At least 2 units must stem from experimental tasks and at least 2 from theoretical ones.
Every unit involves four parts:

  1. Preparation (insufficiently prepared participants may be rejected due to safety reasons).
  2. Execution (20 %).
  3. Report (5-10 pages, 60 %).
  4. Discussion (duration: 15 minutes, 20 %).

Exam Repetition

The exam may be repeated at the end of the semester. There is a possibility to take the exam in the following semester.

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