.pdf-Version des Kommentierten Vorlesungsverzeichnisses

Kommentiertes Vorlesungsverzeichnis Wintersemester 2020/2021

 Logo der Fachgruppe Physik-Astronomie der Universität Bonn

physics606  Advanced Quantum Theory
Mo 12-14, We 13, HS I, PI
  Instructor(s): C. Hanhart, B. Kubis
  Prerequisites: Theoretical courses at the Bachelor degree level, in particular, quantum mechanics; fundamentals of the
theory of complex functions.
  Contents:
  • Relativistic quantum mechanics: relativistic wave equations: Klein-Gordon equation,
    Dirac equation; representations of the Lorentz group: Lorentz transformations of vectors and spinors; non-
    relativistic limit: Pauli equation and spin; free solutions.

  • Many-body quantum theory: occupation number representation and second quantization; field
    operators; absorption and emission of radiation; spin-statistics theorem; fundamentals of propagator theory;

  • Scattering theory: partial wave expansion, scattering phase shift; Lippmann-Schwinger
    equation; Born approximation; optical theorem.


  Literature: Relativistic quantum mechanics:
  • R. Shankar, Principles of Quantum Mechanics
  • F. Schwabl, Advanced Quantum Mechanics, Springer
  • J.D. Bjorken, S.D. Drell, Relativistic Quantum Mechanics, McGraw-Hill

    Many-body quantum theory:
  • L. D. Landau, E. M. Lifshitz, Course of Theoretical Physics, Vol. 3: Quantum
    Mechanics

    Scattering theory:
  • J.J. Sakurai, Modern Quantum Mechanics, Addison Wesley
  • R. Shankar, Principles of Quantum Mechanics
    •   Comments: The lecture course will, in particular, provide the fundamentally new insights that stem from the combination
    of quantum mechanics with special relativity and from the many-body formulation of quantum mechanics.
    The lecture and exercises will be given in English.
    More information and additional literature will be given on the lecture web page.
    physics612  Accelerator Physics
    Tu 12-14, Th 8-10, HS, HISKP
      Instructor(s): K. Desch
      Prerequisites: Experimental Physics 1-5, Theoretical Electrodynamics, Electronics useful.
      Contents: Understanding of the functional principle of different types of particle accelerators Layout and design of
    simple magneto-optic systems. Basic knowledge of radio frequency engineering and technology
    Knowledge of linear beam dynamics in particle accelerators.

    Elementary overview of different types of particle accelerators: electrostatic and induction accelerators, RFQ,
    Alvarez, LINAC, Cyclotron, Synchrotron, Microtron
    Subsystems of particle accelerators: particle sources, RF systems, magnets, vacuum systems
    Linear beam optics: equations of motion, matrix formalism, particle beams and phase space
    Circular accelerators: periodic focusing systems, transverse beam dynamics, longitudinal beam dynamics.
      Literature: Main book for the course:
    K. Wille, The Physics of Particle Accelerators: An Introduction (Oxford University Press)

    Others:
    K. Wille; Physik der Teilchenbeschleuniger und Synchrotronstrahlungsquellen (Teubner)
    F. Hinterberger; Physik der Teilchenbeschleuniger und Ionenoptik (Springer)
    H. Wiedemann; Particle Accelerator Physics (Springer)
    D. A. Edwards, M.J. Syphers; An Introduction to the Physics of High Energy Accelerators (Wiley & Sons)
    S. Y. Lee, Accelerator Physics and Technology, (World Scientific)
    Chao, Mess, Tigner, Zimmer, Handbook of Accelerator Physics and Engineering (World Scientfic)
    and many more
      Comments:  
    physics618 Physics of Particle Detectors
    Tu 14-16, HS I, PI, Do 14-16, HS, HISKP
      Instructor(s): E. von Törne
      Prerequisites: - electrodynamics
    - basics of quantum mechanics
    - elementary knowledge of particle and nuclear physics
      Contents: 1. Introduction

    2. Interaction of particles with matter

    3. Gaseous detectors

    4. Silicon detectors

    5. Photon detection, scintillation and Cherenkov detectors

    6. Electromagnetic calorimeters

    7. Hadron calorimeters

    8. Detector Systems
      Literature: main text:
    H. Kolanoski, N. Wermes; Particle detectors" ( Oxford U. Press 2020) or the
    German version (Springer 2016).

    other literature:
    K. Kleinknecht; Detectors for Particle Radiation (Cambridge University
    Press, 2nd ed., 1998)

    W.R. Leo; Techniques for Nuclear and Particle Physics Experiments (Springer,
    Berlin, 2nd ed., 1994)

    C. Grupen, B. Shwartz; Particle Detectors (Cambridge Monographs on Particle
    Physics, Nuclear Physics and Cosmology, Band 26, 2nd ed., 2008)

    C. Leroy, P.-G. Rancoita; Principles of Radiation Interaction in Matter and
    Detection (World Scientific, Singapore, 3rd ed., 2012)

    W. Blum, W. Riegler, L. Rolandi; Particle Detection with Drift Chambers
    (Springer, Berlin, 2nd ed., 2008)

    H. Spieler; Semiconductor detector systems (Oxford University Press, 2005)
      Comments: The lectures is 3hrs + 1 hr exercise. We have reserved 4 weekly hours. This
    will also include the exercises (2hrs every other week.)

    Course materials are on ecampus.

    The lecture covers the in-depth study of the physics processes relevant for
    modern particle detectors, used e.g. in large-scale experiments at CERN, in
    smaller scale setups in the laboratory, and in astrophysics or medical
    applications. The general concepts of different detector types such as
    trackers, calorimeters or devices used for particle identification are
    introduced. Basics of detector readout techniques and the acquisition of
    large amount of data are discussed. This course is relevant for students who
    wish to major in experimental high energy physics, hadron physics or astro-
    particle physics. It is also useful for students interested in medical
    imaging detectors.

    physics620 Advanced Atomic, Molecular and Optical Physics
    Tu 12-14, Th 8-10, HS, IAP
      Instructor(s): S. Stellmer
      Prerequisites: Quantum mechanics
    Atomic Physics
      Contents: Part 1: Atomic and optical physics (Matter and light)
    Introduction, overview of the course;
    Reminder of basic atomic structure (including relativistic corrections);
    Atoms in external fields;
    Interaction of light and matter: electric dipole transitions, selection rules;
    Magnetic resonance;
    Ramsey interferometry and atomic clocks;
    Light forces, optical potentials, laser cooling and trapping;
    Quantisation of light;
    Cavity-QED;
    Optical lattice clocks;

    Part 2: Molecular Physics
    Basic molecules, hydrogen Molecule;
    Molecular potentials, bound states, collisions;
    Feshbach resonances;

    Part 3: Quantum gases
    Evaporative cooling;
    Bose-Einstein Condensation;
    Fundamentals of many-body physics;
    Optical lattices;
    Ultracold Fermi gases;
    BEC vs. BCS;

    Part 4: Quantum information processing
    Basic ideas: qubits, gates;
    Entanglement and quantum algorithms;
    Ion traps;
      Literature: C. Foot, "Atomic Physics"
    H. Metcalf/P. van der Straten, "Laser Cooling and Trapping"
    C. Pethick/H. Smith, "Bose-Einstein condensation in dilute atomic gases"
    L. Pitaevskii/S. Stringari, "Bose-Einstein condensation"
      Comments: Lectures and tutorials will be online only.

    Please see eCampus for up to date information.
    physics631  Quantum Optics
    Tu, Th 14-16, HS, IAP
      Instructor(s): M. Weitz
      Prerequisites: Optik und Atomphysik-Grundvorlesung, Quantenmechanik
    Optics and Atomic Physics Lectures, Quantum Mechanics
      Contents: Atom-Light Interaction, Bloch Vectors
    Coherence of Light Fields
    Quantisation of the Light Field
    Two and Three Level Atoms
    Laser Cooling of Atoms
    Quantum Information
    Cavity QED
      Literature: R. Loudon; The quantum theory of light (Oxford University Press 2000)
    G. J. Milburn, D. F. Walls; Quantum Optics (Springer 1994)
    D. Meschede; Optik, Licht und Laser (Teubner, Wiesbaden 2nd edition. 2005)
    M. O. Scully, M. S. Zubairy; Quantum Optics (Cambridge 1997)
    P. Meystre, M. Sargent; Elements of Quantum Optics (Springer 1999)
      Comments: Lecture: 3 Teaching hours (3 Semesterwochenstunden)
    Exercises: 1 Teaching hour (1 Semesterwochenstunde)
    The exercises, in two hour blocks, alternate every two weeks with a lecture.

    Times:
    Tuesday 14 c.t.-16
    Thursday 14 c.t.-16
    First lecture: Tuesday, 3. November 2020.

    The lecture will take place in Online format by Zoom.
    Details will follow, also regarding the format of the exercises.
    physics615  Theoretical Particle Physics
    Mo 16-18, Tu 16, HS I, PI
      Instructor(s): M. Drees
      Prerequisites: Relativistic quantum mechanics.
    Introductory courses in particle physics and quantum field theory are helpful, but not essential.
    Basics of Group Theory can be helpful.
      Contents: Classical field theory,
    Gauge theories for QED and QCD,
    Higgs mechanism,
    Standard model of strong and electroweak interactions
      Literature: Cheng and Li, Gauge theories of elementary particle physics
    Peskin and Schroeder: An Introduction to Quantum Field Theory
    Aitchison and Hey: Gauge Theories in Particle Physics
      Comments: The course (both lectures and tutorials) are in English.
    A condition for participation in the final exam is that 50% of the homework of this class have been solved (not necessarily entirely correctly).

    The first lecture will take place on Monday, October 26

    The exact format of the lecture in times of Corona is not clear yet; please watch the web page listed above.
    physics616 Theoretical Hadron Physics
    We 9-12, HS, HISKP
      Instructor(s): U. Meißner, A. Rusetsky
      Prerequisites: Quantum Mechanics, Advanced Quantum Theory
      Contents:

    1. Symmetries and hadron classification schemes

    2. Quark models of hadrons

    3. Hadronic reactions, kinematics, scattering amplitudes and cross sections

    4. Introduction to the dispersion relations

    5. Introduction to the chiral symmetry. Chiral effective field theories.

    6. Introduction to heavy quark physics. Heavy quark effective field theory.

      Literature:

    • F. Halzen, A.D. Martin; Quarks and Leptons (Wiley 1984)

    • D.H. Perkins; Introduction to High Energy Physics (Addison-Wesley 1987)

    • J.F. Donoghue et al.; Dynamics of the Standard Model, 2nd ed. (Cambridge University Press 2014)

    • A.W. Thomas, W. Weise; The Structure of the Nucleon (Wiley-VCH 2001)

    • M.E. Peskin, D.V. Schroeder; An Introduction to Quantum Field Theory (Westview Press 1995)

    • F.E. Close; An introduction to Quarks and Partons (Academic Press 1980)

    • J.P. Elliott, P.G. Dawber; Symmetry in Physics (Oxford University Press 1985)

    • W.E. Burcham, M. Jobes; Nuclear and Particle Physics (Prentice Hall 1995)

    • H. Georgi; Lie Algebras in Particle Physics (Westview Press 1999)

    • G. Barton; Introduction to Dispersion Techniques in Field Theory (W.A.Benjamin1965)

    • S. Scherer, M.R. Schindler; A Primer for Chiral Perturbation Theory (Springer 2012)

    • A. Manohar, M.Wise; Heavy Quark Physics (Cambridge University Press 2000)

      Comments: A basic knowledge of Quantum Field Theory is useful.
    physics719 BCGS intensive week (Test beam measurements with a pixel telescope at the DESY electron test beam)
    February/March 2021
      Instructor(s): I. Gregor
      Prerequisites: Basic knowledge of particle physics at the bachelor or master level is assumed.
    Some programming knowledge (C or C++) would
    also be very useful but are not mandatory.
      Contents: This course will be of interest for students starting their master studies,
    students who start their master project soon, and Ph.D. students
    from other fields of physics who wish to broaden their horizon. We will discuss
    particle detectors as mostly used in particle physics with focus
    on silicon tracking detectors. In the afternoons tests with a pixel telescope
    will be performed at the DESY test beam and the obtained data
    analysed. An overview of important parameters for detector testing will be given
    and some of them tested in laboratory tests. This course will
    be at DESY in Hamburg (travel costs will be covered)!!

    While following these lines, particular emphasis is given to

    - Overview on detectors for particle physics
    - Passage of particles through matter
    - Basics on tracking detectors with focus on 
semi-conductor detectors
    - Reconstruction of hits
    - Important parameters for detector testing and 
how to measure those
    - Radiation damage effects
    - Simulation of tracks
    - Taking data with a pixel telescope (electrons at DESY test beam)
    - Test beam data analysis

    Of course, not all topics can be addressed to depth within one week. Thus,
    an effort is made that students will receive an overview and
    understand the most important concepts. The course is an all-day seminar
    starting on Monday morning of the selected week.

    Registration: To take part please register on eCampus:
    https://ecampus.uni-bonn.de/goto_ecampus_crs_1861366.html

    before the end of January 2021.

    Students who wish to receive course credits also need to register on
    BASIS!

    Registrations opens on November 1st 2021 until end of January 2021. As the
    Corona situation does not allow an in-person course at DESY, an all-
    online course will be offered in the week starting February 22, 2021.

    Form of Testing and Examination: Seminar talk. Students who would like to obtain
    course credit for the intensive week give a seminar talk during
    or after the intensive week. Please contact gregor@physik.uni-bonn.de as soon as
    you registered if you would like to give a presentation. The
    course can also be taken without course credit.

      Literature: Will be provided.
      Comments: The course is an all-day workshop in the lecture free time: starting February 22
    2021 running all week.

    The Intensive Week will have lectures in the morning and hands-on exercises in
    the afternoon.
    physics740  Hands-on Seminar: Experimental Optics and Atomic Physics
      Instructor(s): M. Weitz u.M.
      Prerequisites: Optik- und Atomphysik Grundvorlesungen, Quantenmechanik
      Contents: Diodenlaser
    Optische Resonatoren
    Akustooptische Modulatoren
    Spektroskopie
    Radiofrequenztechnik
    Spannungsdoppelbrechung
    und vieles mehr
      Literature: wird gestellt
      Comments: Vorbesprechung am Montag, den 2.11.2020, um 9 c.t.,

    Die Vorbesprechung findet Online per Zoom statt, wobei Zugangsdaten
    auf ecampus zu finden werden sind.

    Seminartermine ab 16.11.2020
    physics760  Computational Physics
    Tu 10-12, SR I, HISKP
      Instructor(s): T. Luu, A. Nogga, A. Wirzba
      Prerequisites: Knowledge of a modern programming language (for example, C and/or C++)
      Contents: Aim of the course: Develop the ability to apply modern computational methods for solving
    physics problems

    Main Topics:

    • Lattice Monte Carlo Methods

    • Direct Methods/Integral Equations

    • Bayesian Inference


    Final projects and participation in homework assignments required for successful completion of course.
      Literature: W.H. Press et al.: Numerical Recipes in C (Cambridge University Press)
    C.P. Robert and G. Casella: Monte Carlo Statistical Methods (Springer 2004)
    Tao Pang: An Introduction to Computational Physics (Cambridge University Press)
    Vesely, Franz J.: Computational Physics: An Introduction (Springer)
    Binder, Kurt and Heermann, Dieter W.: Monte Carlo Simulation in Statistical Physics (Springer)
    Fehske, H.; Schneider, R.; Weisse, A.: Computational Many-Particle Physics (Springer)
      Comments: Course will be given online and in English
    physics7502 Random Walks and Diffusion
      Instructor(s): G. Schütz
      Prerequisites: Quantum mechanics, statistical physics, ordinary and partial differential equations
      Contents: Random walks, diffusion, central limit theorem, first passage problems, interacting particle systems
      Literature: Beginning of the course on 5th Nov.
      Comments: This is an updated and more demanding version of the course with the same title taught previously. Some knowledge in solving partial differential equations (including nonlinear partial differential equations) are required to follow.
    physics7508  Quantum Computing
    Mo 10-12, HS, HISKP, We 10, SR I; HISKP
      Instructor(s): C. Urbach
      Prerequisites: Quantum Mechanics
    Knowledge of a programming language like python or R might be helpful.
      Contents: Understand the theory of quantum computing and apply it to existing hardware.

    • Quantum circuits

    • Quantum algorithms

    • Quantum computers

    • Quantum noise and quantum operations

    • Quantum error correction


    Example problems will be implemented and run on IBM's Q experience.
      Literature: M. A. Nielsen and I. L. Chuang, Quantum Computation and Quantum Information, Cambridge university press.
      Comments:  
    physics772 Physics in Medicine: Fundamentals of Analyzing Biomedical Signals
    Mo 10-12, We 12, SR I, HISKP
      Instructor(s): K. Lehnertz
      Prerequisites: Bachelor
      Contents: Introduction to the theory of nonlinear dynamical systems
    - regularity, stochasticity, deterministic chaos, nonlinearity, complexity, causality, (non-)stationarity, fractals
    - selected examples of nonlinear dynamical systems and their characteristics (model and real world systems)
    - selected phenomena (e.g. noise-induced transition, stochastic resonance, self-organized criticality)
    Time series analysis
    - linear methods: statistical moments, power spectral estimates, auto- and cross-correlation function,
    autoregressive modeling
    - univariate and bivariate nonlinear methods: state-space reconstruction, dimensions, Lyapunov exponents,
    entropies, determinism, synchronization, interdependencies, surrogate concepts, measuring non-stationarity
    Applications
    - nonlinear analysis of biomedical time series (EEG, MEG, EKG)
      Literature: M. Priestley: Nonlinear and nonstationary time series analysis, London, Academic Press, 1988.

    H.G. Schuster: Deterministic chaos: an introduction. VCH Verlag Weinheim; Basel; Cambridge, New York, 1989

    E. Ott: Chaos in dynamical systems. Cambridge University Press, Cambridge UK, 1993

    H. Kantz, T. Schreiber T: Nonlinear time series analysis. Cambridge University Press, Cambridge UK, 2nd ed., 2003

    A. Pikovsky, M. Rosenblum, J. Kurths: Synchronization: a universal concept in nonlinear sciences. Cambridge University Press, Cambridge UK, 2001
      Comments: Beginning: Mo October 26
    physics776 Physics in Medicine: Physics of Magnetic Resonance Imaging
    Tu 10-12, Th 16-18, HS, IAP
      Instructor(s): T. Stöcker
      Prerequisites: Lectures Experimental Physics I-III (physik111-physik311)
      Contents: - Theory and origin of nuclear magnetic resonance (QM and semiclassical approach)
    - Spin dynamics, T1 and T2 relaxation, Bloch Equations and the Signal Equation
    - Gradient echoes and spin echoes and the difference between T2 and T2*
    - On- and off-resonant excitation and the slice selection process
    - Spatial encoding by means of gradient fields and the k-space formalism
    - Basic imaging sequences and their basic contrasts, basic imaging artifacts
    - Hardware components of an MRI scanner, accelerated imaging with multiple
    receivers
    - Computation of signal amplitudes in steady state sequences (Phase Graphs)
    - Advanced MRI Sequences: quantifying flow, diffusion, susceptibility and more
    - Applications in Neuroimaging
      Literature: - T. Stöcker: Scriptum zur Vorlesung
    - E.M. Haacke et al, Magnetic Resonance Imaging: Physical Principles and Sequence
    Design,
    John Wiley 1999
    - M.T. Vlaardingerbroek, J.A. den Boer, Magnetic Resonance Imaging: Theory and
    Practice,
    Springer
    - Z.P. Liang, P.C. Lauterbur, Principles of Magnetic Resonance Imaging: A Signal
    Processing
    Perspective, SPIE 1999
      Comments:

    physics653 Seminar on Recent Topics in Hadron Physics
    Fr 12-14, SR I, HISKP
      Instructor(s): A. Thiel
      Prerequisites:  
      Contents: This seminar will cover different topics, which are currently of interest in the field of hadron physics. These topics will - among others - include:

    • Magnetic moment of the proton

    • Proton radius puzzle

    • Investigation of Proton Polarizabilities via Compton scattering


    • Baryon spectroscopy - Excited states of protons and neutrons

    • the d(2380)-hexaquark and its implications for Astrophysics

    • Investigation of exotic states like hybrids and glueballs

    • Pentaquark states

    • Charmonium spectroscopy

    • D-meson spectroscopy


    • Magnetic moment of the muon

    • Electric Dipole Moment measurements

    • Future Developments

      Literature: Will be provided during the seminar.
      Comments:  
    physics655 Computational Physics Seminar on Analyzing Biomedical Signals
    Mo 14-16, SR I, HISKP
      Instructor(s): K. Lehnertz, B. Metsch
      Prerequisites: Bachelor, basics of programming language (e.g., Fortran, C, C++, Pascal)
      Contents: - time series: chaotic model systems, noise, autoregressive processes, real world data
    - generating time series: recursive methods, integration of ODEs
    - statistical properties of time series: higher order moments, autocorrelation function, power spectra,
    corsscorrelation function
    - state-space reconstruction (Takens theorem)
    - characterizing measures: dimensions, Lyapunov-exponents, entropies, testing determinism (basic
    algorithms, influencing factors, correction schemes)
    - testing nonlinearity: making surrogates, null hypothesis tests, Monte-Carlo simulation
    - nonlinear noise reduction
    - measuring synchronisation and interdependencies
      Literature: - H. Kantz, T. Schreiber T: Nonlinear time series analysis. Cambridge University Press, Cambridge UK, 2nd
    ed., 2003
    - A. Pikovsky, M. Rosenblum, J. Kurths: Synchronization: a universal concept in nonlinear sciences.
    Cambridge University Press, Cambridge UK, 2001
    - WH. Press, BP. Flannery, SA. Teukolsky, WT. Vetterling: Numerical Recipes: The Art of Scientific
    Computing. Cambridge University Press
    - see also: http://www.mpipks-dresden.mpg.de/~tisean/ and http://www.nr.com/
      Comments: Location: Seminarraum I, HISKP
    Time: Mo 14 - 16 and one lecture to be arranged
    Beginning: Mo October 26 (preliminary discussion)
    6823 Research Internship / Praktikum in der Arbeitsgruppe:
    Analysis of proton-proton (ATLAS) collisions. Emphasis on top-quark physics and/or machine learning.
    pr, all day, 3-4 weeks
    Applications to brock@physik.uni-bonn.de, PI
      Instructor(s): I. Brock u.M.
      Prerequisites: Master level particle physics lecture.
      Contents: Analysis of Run 2 data from the ATLAS experiment with emphasis on top quark production in association with
    other heavy particles. Further development of machine learning techniques for use in high-energy physics.
      Literature:  
      Comments:  
    6826 Praktikum in der Arbeitsgruppe: Neurophysik, Computational Physics, Zeitreihenanalyse
    pr, ganztägig, ca. 4 Wochen, n. Vereinb., HISKP u. Klinik für Epileptologie
      Instructor(s): K. Lehnertz u.M.
      Prerequisites: basics of programming language
      Contents: This laboratory course provides insight into the current research activities of the Neurophysics group.
    Introduction to time series analysis techniques, neuronal modelling, complex networks.
    Opportunity for original research on a topic of own choice, with concluding presentation to the group.
      Literature: Working materials will be provided.
      Comments: Contact:
    Prof. Dr. K. Lehnertz
    email: klaus.lehnertz@ukbonn.de
    6834 Praktikum in der Arbeitsgruppe: Vorbereitung und Durchführung optischer und atomphysikalischer Experimente, Mitwirkung an Forschungsprojekten der Arbeitsgruppe / Laboratory in the Research Group: Preparation and conduction of optical and atomic physics experiments, Participation at research projects of the group (D/E)
    pr, ganztägig, 2-6 Wochen n. Vereinb., IAP
      Instructor(s): M. Weitz u.M.
      Prerequisites: Optik und Atomphysik Grundvorlesungen, Quantenmechanik
      Contents: Studenten soll frühzeitig die Möglichkeit geboten werden, an aktuellen Forschungsthemen aus dem Bereich der experimentellen Quantenoptik mitzuarbeiten: Ultrakalte atomare Gase, Bose-Einstein-Kondensation, kollektive photonische Quanteneffekte. Die genaue Themenstellung des Praktikums erfolgt nach Absprache.
      Literature: wird gestellt
      Comments: Homepage der Arbeitsgruppe:

    https://www.qo.uni-bonn.de/
    6835 Special Topics in Quantum Field Theory: Anomalies and their consequences
    Blockvorlesung: 26.10. bis 30.10.2020
      Instructor(s): E. Kraus
      Prerequisites: Quantum field theory (physics 755)
    Basics of quantization of gauge theories
      Contents: The anomaly of the axial current
    Nonrenormalization of the anomaly
    Anomalies in gauge theories: Nonrenormalizabiliy and symmetries
      Literature: N. N. Bogoliubov, D.V. Shirkov; Introduction to the theory of quantized fields
    (J. Wiley & Sons 1959)
    M. Kaku, Quantum Field Theory (Oxford University Press 1993)
    M. E. Peskin, D.V. Schroeder; An Introduction to Quantum Field Theory (Harper
    Collins Publ. 1995)
      Comments: 27.10. 8-10
    28.10. 10-12
    29.10. 8-10 und 12-14
    jeweils im HS I des PI.

    astro8503  Radio and X-Ray Observations of Dark Matter and Dark Energy
    Fr 13-15, Raum 0.008, AIfA
    Exercises/lab course arranged by appointment
      Instructor(s): T. Reiprich, F. Pacaud
      Prerequisites: Introduction to astronomy.
      Contents: Introduction into the evolution of the universe and the theoretical background of dark matter and dark
    energy tests.
    Cosmology with clusters of galaxies using X-rays and the Sunyaev-Zeldovich effect.
    Cosmic microwave background.
    Cosmic distance scale.
    Cosmic baryon budget and the warm hot intergalactic medium.
      Literature: A lecture script will be distributed.
      Comments:  
    astro856 Quasars and Microquasars
    Th 13-15, Raum 0.01, MPIfR
      Instructor(s): M. Massi
      Prerequisites:  
      Contents: Stellar-mass black holes in our Galaxy mimic many of the phenomena seen in quasars but at much shorter timescales. In these lectures we present and discuss how the simultaneous use of multiwavelength observations has allowed a major progress in the understanding of the accretion/ejection phenomenology.


    1. Microquasars and Quasars
    Definitions
    Stellar evolution, white dwarf, neutron star, BH

    2. Accretion power in astrophysics
    Nature of the mass donor: Low and High Mass X-ray Binaries
    Accretion by wind or/and by Roche lobe overflow
    Eddington luminosity
    Mass function: neutron star or black hole ?

    3. X-ray observations
    Temperature of the accretion disc and inner radius
    Spectral states
    Quasi Periodic Oscillations (QPO)

    4. Radio observations
    Single dish monitoring and VLBI
    Superluminal motion (review, article)
    Doppler Boosting
    Synchrotron radiation
    Plasmoids and steady jet

    5. AGN
      Literature:  
      Comments: http://www3.mpifr-bonn.mpg.de/staff/mmassi/#microquasars1
    6954 Seminar on galaxy clusters
    Th 15-16:30, Raum 0.006, AIfA
      Instructor(s): T. Reiprich
      Prerequisites: Introductory astronomy course.
      Contents: The students will report about up-to-date research work on galaxy clusters based on scientific papers.
      Literature: Will be provided.
      Comments: