Master focus in physics

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Master focus in physics ASTROPARTICLE PHYSICS AND COSMOLOGY Christopher Wiebusch 05.10.2018

From Particle Physics to Cosmology 10-18 m Micro-cosmos at smallest scales Understanding nature over 44 orders of magnitude Universe as a total 10 +26 m After G.Raffelt

Nobel Price 2002 Raymond Davis Jr. Masatoshi Koshiba. Riccardo Giacconi. for pioneering contributions to astrophysics, which have led to the discovery of cosmic X-ray sources Pioneering neutrino astronomy Neutrinos from the sun Neutrinos from Supernova 1987A Neutrino image of the sun by Super-Kamiokande Super-Kamiokande X-ray image of the remnant of a Supernova observed by Tycho Brahe in 1572 (Chandra satellite)

Nobel Price in Physik 2006 For their discovery of the blackbody form and anisotropy of the cosmic microwave background radiation' T=2.728 K -270 C Cosmic Background Explorer (COBE) Satellite 1989-1992 New York times 1992: "like seeing the face of God." T<18µK George F. Smoot John C. Mather

Nobel Price 2011: Discovery of Dark Energy Saul Perlmutter (USA), Brian P. Schmidt (USA und Australien) Adam G. Riess (USA) For the discovery of the accelerating expansion of the Universe through observations of distant supernovae

Nobel Price in Physics 2015 Arthur McDonald For the discovery of neutrino oscillations, which shows that neutrinos have mass" Takaaki Kajita

Nobel Price in Physics 2017 Rainer Weiss Barry Barish Kip Thorne For decisive contributions to the LIGO detector and the observation of gravitational waves"

Please enjoy the privilege of belonging to the first generation of mankind being able to observe the entire visible universe and to draw cosmological conclusions fully based on observational facts. Julien Lesgourgues Currently there seems to be no fundamental physical or technological boundary that prohibits a further increase of sensitivity of astronomical obeservations. It is a matter of how much sensitivity our society is willing to afford. C.W.

Experimental Astroparticle Physics 1.Physikalisches Institut B, Prof. Schael AMS Experiment Cosmic rays, anti-matter, dark-matter 3.Physikalisches Institut A Prof. Hebbeker, Prof. Bretz, Prof. Erdmann Pierre Auger Observatory High energy cosmic rays FACT & HAWC Gamma-astronomy 3.Physikalisches Institut B Prof. Wiebusch, Prof. Stahl, Prof. Ludhova IceCube Neutrino Observatory, Borexino and Juno Neutrino Experiment Neutrino astronomy, neutrino oscillations, dark matter, cosmic rays

Theory: Institute for Theoretical Particle Physics and Cosmology Julien Lesgourgues Michael Kraemer Philipp Mertsch Felix Kahlhoefer Cosmology: understanding of our universe's global properties and evolution. Phenomenology interface between theoretical physics, particle physics and astrophysics. Modeling the evolution of cosmological perturbations Search for physics beyond the Standard Model, including dark matter Understanding the physics of cosmic rays and their sources

Overview: Courses in Year 1 Core courses ( big five ) 1. Relativity & Cosmology (th) 10 CP (WS) 2. Astroparticle physics (exp) 10CP (SS) 3. Astronomy and Astrophysics 10 CP (WS) Open to every master focus 4. Elementary particle physics Experimental I+II 20 CP Quantum field theory I+II 20 CP 5. Lab courses (Praktikum) Particle physics 10CP (SS) Astronomy 5CP (WS) Astroteilchenphysik 5CP (SS) Special courses Seminar 10CP (WS or SS) Exper.Techniques 10CP (WS) Special lectures 5 CP (WS/SS) Non thermal (SS) Cosmology (SS) This Master-focus allows for a focus on experiment or theory or both Astronomy and Astrophysics, + Lab courses

Core Module Theory of Relativity and Cosmology Lecture: 4 SWS Exercise: 2 SWS, 10 CPT Goals Understanding of gravitational interactions, the history of the universe and the ability to mathematically describe the evolution of a homogeneous universe. Content Introduction to the theory of general relativity as a theory of gravity (mathematical foundations, foundations of differential geometry, the metric as a field, Einsteins field equations, simple effects like gravitational red shift or clocks in gravitational fields). Black holes and gravitational waves. Cosmology: homogeneous and isotropic universe; dark matter and dark energy; physics of the early universe; structure formation and inflation. Lecture in WS 18/19: Prof. Lesgourgues Additional lecture in SS with in-depth

Core Module: Astroparticle physics Lecture: 4 SWS, Exercises 2 SWS, 10 CPT Goals: Astro physics & particle physics with high energy cosmic radiation and experimental methods Content Experimental methods: satellites, air-shower detectors, underground detectors Extensive air showers, cascade equations, experimental observables Cosmic rays, energy spectrum composition, the knee, the ankle, the GZK cutoff, age, production and detection results Neutrino astronomy: solar, supernova and high energy, ν oscillations Gamma astronomy: galactic and extragalactic sources Astrophysical sources of cosmic rays, acceleration and propagation Dark matter, experimental methods for direct and indirect detection, astrophysical models Contemporary results in the aforementioned fields Lecture in SS 19: Prof. Bretz

Module: Astronomy and Astrophysics Lecture 4 SWS, Exercises 2 SWS, 10 CPT Goal: Observational methods and observational results in modern astrophysics, astronomy and cosmology Content: Electro-magnetic radiation, astronomical coordinates, astrophysical instruments Planetary systems, exoplanets Stars: spectral classes of stars, variable stars Hertzsprung-Russel-diagram, interior of stars Stellar evolution, final stages supernovae, white dwarfs, neutron stars, black holes, grav. waves Galaxies: classification, dynamics & gravitational lensing, active galaxies Cosmology: cosmological principle, Hubble law, Robertson-Walker metrics, Friedman equation, dark matter and dark energy Early Universe: Big Bang, cosmic micro-wave background, nuclear synthesis structure formation, gravitational lensing Suited for every student in the master program, e.g. condensed matter Lecture in WS 18/19: Prof. Wiebusch Crab nebula (M1)

Lab courses 1. Default: Laboratoy particle physics 10 CPT Preperation lectures (8x) and 3 experiments SS 19: Priv.Doz.Dr. O.Pooth, Profs. Stahl & Hebbeker &Wiebusch 2. Optionally: Laboratory astroparticle physics 5 CPT Small version of above: preparation lectures (8x) and 1 experiment (e.g. Air shower detector, Compton effect or muon life-time) More astroparticle specific experiments in preparation SS 19: Priv.Doz.Dr. O.Pooth, Profs. Stahl & Hebbeker & Wiebusch 3. Voluntary: Laboratory Astronomy 5 CPT In addition to astronomy course Performance of an astronomical observation, analysis of data and presentation of the results WS 18/19: Priv.Doz.Dr. O.Pooth, Profs. Bretz & Wiebusch 2.+3. can be combined to 10 CPT 3. is open to all master courses and is useful for everybody (in combination with the module Astronomy)

Example: Lab astronomy 1 full day @ Astropeiler Stockert Guided Tour Full day measurements e.g. of Supernova Remnants, Cosmic Masers, Pulsars, galactic Rotation, active galaxies A 25m telescope in your hands Analysis of data Presentation of the results Evidence for invisible dark matter in our galaxy

The Non-Thermal Universe Lecture with tutorial, 2+1 SWS, 5 CPT How do astrophysical sources radiate at the highest energies? What is making cosmic rays diffuse through the Galaxy? Why are shock waves accelerating particles? You will learn to quantitatively answer these questions. This will be a black board lecture and we will derive the fundamental equations from electrodynamics and some basic hydrodynamics. Lecture in WS 18/19: Prof. Mertsch Tue, 14:30 16:00, 4263 402 (26 C 402)

Relevant Lectures WS17/18 and SS18 WS-17/18 V4Ü2 Theory of Relativity and Cosmology (Lesgourgues) V4 Ü2 Astronomy and Astrophysics (Wiebusch) S2 New Results from Particle and Astroparticle Physics (Students Seminar Experiment) (Stahl) P3 Laboratory on Astronomy (Pooth) V4Ü2 Experimental Techniques in Particle Physics (Roth) V4Ü2 Particle Physics I (Erdmann) V4Ü2 Quantum Field Theory of Particle Physics I (Harlander) V2 Theoretical concepts in high-energy astrophysics(mertsch) V4Ü2 Advanced quantum field theory (Czakon)

Relevant Lectures WS17/18 and SS18 SS-18 V4 Ü2 Astroparticle Physics (Wiebusch) S2 New Results from Particle and Astroparticle Physics (Students Seminar Experiment) (Bretz) S2 Particles, Fields, and Strings (Student Seminar Theory) P6 Laboratory Course Particle Physics (Pooth) P3 Laboratory Course on Astroparticle Physics (Pooth) V4Ü2 The perturbed universe (Lesgourgues) V2Ü2 Dark matter (Kahlhöfer) V4Ü2 Particle Physics II (Stahl) V4Ü2 Quantum Field Theory of Particle Physics II (Harlander) V1Ü1 Deep Learning in Physics Research (Erdmann) V2 Current Themes in High-Energy Astrophysics (Mertsch) V4Ü2 Supersymmetry (Czakon)

Possible course selections e.g. experimental astro-particle: WS: 1.Astronomy, 2.Cosmology,3. Particle physics I, (+Lab Astronomy) (=35 cpt) SS: 1.Astroparticle physics, 2.Lab particle physics, 3.Particle physics II (=30cpt) e.g. theoretical cosmology: WS: 1.Astronomy, 2.Cosmology, 3.QFT I, (+Lab Astronomy) (=35 cpt) SS: 1.Astroparticle physics, 2.QFT II, 3.Seminar (+Lab Astroparticle) (=35 cpt) e.g. experimental particle physics: WS: 1.Cosmology,2. Particle physics I, 3. QFT 1 (=30cpt) SS: 1.Astroparticle physics, 2.Lab particle physics, 3.Particle physics II (=30cpt) 2nd year Masters thesis + additional lecture 5cpt or 10cpt You have a great flexibility to choose and combine modules

In the 2 nd year: Master thesis? Theory (Profs Kraemer, Lesgourgues, Mertsch, Kalhoefer) Cosmology and early universe Physics beyond the standard model (dark matter) Understanding the non-thermal universe and cosmic rays AMS (I.Phys.Inst. B, Prof.Schael) Direct measurement of cosmic rays above the atmosphere Search for cosmic Anti-matter and Dark matter Pierre Auger Experiment (III.Phys.Inst. A, Profs. Erdmann, Hebbeker, Bretz) Measurements of cosmic rays at highest energies Search for the unknown sources of cosmic rays IceCube (III.Phys.Inst. B, Prof. Wiebusch) Astronomy with high energy cosmic neutrinos Search for the sources of cosmic rays, Dark matter, Neutrino oscillations JUNO (III.Phys.Inst. B, Prof. Stahl) Low energy (solar& supernovae) neutrinos, neutrino oscillations, solar neutrinos HAWC/FACT (III.Phy.Inst.A, Prof Bretz) Gamma astronomy All projetcs: Detector development

Enjoy your master courses.. Questions?