Lectures, Seminars and Lab Courses

Professor(s): Ivette Fuentes

Content:

- An introduction to the basic techniques required to investigate questions in the overlap of quantum mechanics and relativity employing novel tools in quantum information and quantum metrology. Students will learn about the effects of space-time, motion and gravity on quantum properties such as entanglement, and their effects on paradigmatic quantum communication protocols. Applications of quantum metrology to relativistic quantum fields aimed at estimating spacetime parameters will be discussed.
- Course objectives: To learn techniques in quantum field theory in curved spacetime, quantum information and quantum metrology. To learn how to integrate the techniques mentioned above to study fundamental effects and applications in the overlap of quantum theory and relativity.

When: Wed 08.03.2017 - 28.06.2017

ECTS Credits: 2 hrs, 2,5 ECTS

Requirements: A previous course in quantum mechanics is required

Professor(s): Aspelmeyer, Bertlmann, Hiesmayr, Verstraete, Zeilinger

Content:

- Focus: Theory of quantum structure and geometry of space, time and matter; experimental physics; atomic and subatomic physics; quantum information: quantum cryptography, quantum teleportation, quantum computer; quantum effects: quantum Zeno effect, interaction-free measurement, no-cloning theorem and non-perfect cloning; nonlocality: entangled states - mathematical characterization, complementarity and Bell inequalities and decoherence in particle physics, multi-partite entanglement; physics and geometry: Dirac monopole, Aharanov-Bohm effect, Berry phase, quantum information and geometry.

When: Thu 02.03., 27.04., 11.05., 18.05., 01.06. 2017

ECTS Credits : 2 hrs, 5,0

ECTS Requirements: Study of the modern developments in quantum information

Professor(s): Markus Arndt

Content:

- ATOMS:

1.Lorentz atom,

2. 2-level system & Einstein coefficients

3. Bloch equations

4. Line widths - ADVANCED OPTICS:

1.Lab-Optics derived from the Lorentz atom: non-linear phenomena & Polarization optics

2.Matrix Optics

3.Gauß Optics

4.Cavities and Stabilization Techniques - LASER PHYSICS

1.Rate equations

2.Laser types - Laser Cooling & Trapping of Atoms

1.From Doppler Cooling to Sub-Recoil Cooling

2.Optical and Magnetic Trapping

3.Bose Einstein Condensation - Molecular Physics

1. From 2-atom to many-body system

2. Bonds

3. Rotational and vibrational spectra

Requirements: E3 or T2 or equivalent

When: Mon 13.00-14.30 & Wed 12.15-13.45 Ernst-Mach-HS

ECTS Credits : 4 SWS, 5.0 ECTS

Professor(s): Markus Aspelmeyer

Content:

The aim of the course is to obtain an understanding of the quantum properties of light. The course will provide an introduction into the experimental foundations of quantum optics, the key experiments and the basic theoretical principles. Topics include: review of linear and nonlinear optics; lasers and cavities; photon statistics; nonclassical states of light; cavity quantum electrodynamics (cavity QED); quantum optical control of matter (trapped ions, quantum optomechanics); measuring time and space with quantum light (frequency combs, atomic clocks, gravitational wave detectors)

When: Wed 08.03. - 28.06.2017

ECTS Credits : 4 hrs, 5.0 ECTS

Professor(s): Fank Verstraete

Content:

In this course, we will introduce concept and tools in group theory needed for understanding advanced concepts in quantum many body systems and especially topological phases of matter. Topics covered are e.g. representation theory of finite groups, a discussion of projective representations and cohomology groups and the classification of semisimple Lie algebras.

Requirements: E3 or T2 or equivalent

When: Block 14.03.2017 – 23.03.2017

ECTS Credits : 2 hrs, 2.5 ECTS

Professor(s): Ivette Fuentes

Content:

- An introduction to the basic techniques required to investigate questions in the overlap of quantum mechanics and relativity employing novel tools in quantum information and quantum metrology. Students will learn about the effects of space-time, motion and gravity on quantum properties such as entanglement, and their effects on paradigmatic quantum communication protocols. Applications of quantum metrology to relativistic quantum fields aimed at estimating spacetime parameters will be discussed.
- Course methods: Exercise classes and student seminars.

When: Fri 10.03.2017 - 30.06.2017

ECTS Credits : 2 hrs, 5,0

ECTSRequirements: A previous course in quantum mechanics is required

Professor(s): Markus Arndt

Content:

- General definitions and concepts of matter-wave physics
- Beam Splitter Technologies
- Interferometer Concepts
- Sources for Molecular Quantum Optics
- Detectors for Molecular Quantum Optics
- Quantum assisted measurements: Atoms
- Quantum assisted measurements: Macromolecules
- Decoherence: Models and Experiments
- Limits of quantum mechanics: Collapse models?
- Limits of quantum mechanics: Gravity?
- Quantum physics and biology 1: Quantum interferometry with biomolecules, vitamins, peptides, DNA
- Quantum physics and biology 2: Radical pairs and Magnetosenses
- Quantum physics and biology 3: Coherence in light-harvesting complexes
- Quantum physics and biology 4: Tunneling in biological systems

When: Mon 09:30 – 12:00 Erwin-Schrödinger-HS, from 24.04.2017 onwards

Format:

- You are present 80% of all meetings and you deliver:
- 5-page English handout (before the talk), your first submission to MA is graded
- 45 min PPT presentation (graded after your talk)
- Discussion part (graded after the discussion)
- Selected students can do an experimental Bachelor thesis linked to this seminar

Prerequisites: E3 or T2 or equivalent // Useful but less binding: AMOP Lecture, QO Lab course

Professor(s): Markus Arndt

Content:

- Understand the physics of atoms, lasers and molecules as well as modern methods to prepare and use cold atoms and molecules

When: Mon 06.03. - 26.06.2017, 15.00-15.45 in the Ernst-Mach-HS

ECTS Credits : 2 hrs, 5,0

ECTS Requirements: Minimum requirement for successful attendance: successful completion of E3 in Winter 2015 or thorough understanding of Demtröder Volume 3

Professor(s): Markus Aspelmeyer

Content:

The Quantum regime of massive mechanical systems opens up a new parameter-regime for experimental physics. Relevant topics range from quantum measurement to macroscopic quantum superpositions. We will discuss relevant important literature on that topic.

When: Thu 02.03. - 29.06.2017

ECTS Credits : 2 hrs, 5.0 ECTS

Requirements: Understanding of the course

Professor(s): Arndt, Aspelmeyer, Brukner, Hiesmayr, Verstraete, Fuentes, Walther, Zeilinger

Content:

This course is a „training on the job“

You need to be accepted as a master student in one of these groups to be eligible for these credits.

Professor(s): Philip Walther

Content:

- Violation of Bell´s inequalities
- Photon-Experiments
- Physics on Lasers
- Sources and detectors for molecular quantum optics
- Molecule interferometry

Format:

- 4 experiments (Bell-experiment + molecule interferometry + Laser/Spectro/Trapping) for each experiment test of theoretical background
- 2 protocols (one individual plus one individual/joint)

When: 11.09. – 29.09.2017, (Kick Off: 16.06.2017 at 10:00)

ECTS Credits : 8 hrs, 10.0 ECTS

Limited number of participants, max. 18

Series of Lectures in a 4-Semester Curriculum

Professors: J. Schmiedmayer, P. Rabl, T. Schumm, A. Rauschenbeutel

When: Tuesday 14th march 14h ATI

Professor(s): G. Bastard, ENS Paris

Content:

The lectures, at master level, will discuss electronic states in heterostructures (and a touch of graphene) and optical absorption/micro-cavity effects.

When: 21 March, 23 March, 28 March, 30 March, 04 April, 06 April; 14:00h – 16:00h

Where: Seminarraum 387, Gußhausstrasse 27-29

Professors: Schumm, Rauschenbeutel, Schmiedmayer, Abele...

Content:

- Lab course where you can experience first hand the basic phenomena of Quantum Physics.

Format:

- 8 brand-new setups
- one afternoon each
- small teams (1-3)

ECT Credits: 4

Location: 141.A12

Sign up for labs by mail to: barbara.stross@tuwien.ac.at

When: Fridays, at 15:15

Location: Hörsaal Atominstitut, Stadionallee 2