Group 1: Methods and detectors in particle and astroparticle physics, 36-K-08 |
Responsible faculty members: L. Baudis, F. Canelli, B. Kilminster, A.Kish, N.Serra, A. Vollhardt |
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| date | speaker | topic | responsible |
1 | Sept 28 | Eschle, Jonas | Passage of radiation through matter (electromagnetic and nuclear) | Baudis |
2 | Oct 5 | Cossalter, Fabio | Cloud chambers | Kilminster |
3 | Oct 12 | Gabi, Lukas | Bubble chambers; concrete example: Gargamelle (historical) and COUPP (current) | Kish |
4 | Oct 19 | LeBow, Nicholas | Modern photon counters: PMTs (including latest developments) and solid-state devices | Kish |
5 | Oct 26 | Scheibler, Subas | Gas wire chamber; concrete example: multi-wire proportional chambers, the muon system of LHCb | Serra |
6 | Nov 2 | Janisch, Tranquillo Fabio | Liquid scintillators; concrete example: Borexino and neutrino detection | Baudis |
7 | Nov 2 | Neuenschwander, Benno | Solid state scintillators; concrete example: the crystal EM calorimeter of CMS | Canelli |
8 | Nov 9 | Ruosch, Lukas | Semiconductor ionization detectors; concrete examples: HPGe crystals and Si tracking devices | Kilminster |
9 | Nov 16 | Masseroni, Michele | Cherenkov detectors; concrete example: ring-imaging Cherenkov and water Cherenkov detectors | Vollhardt |
10 | Nov 23 | Mueller, Simon | Cryogenic calorimeters; concrete example: liquid argon detector of D0 (important for top discovery) | Canelli |
11 | Nov 30 | Heer, Matthaeus | Time projection chambers; concrete example: the NEXT experiment (high-pressure xenon for double beta decay) | Baudis |
12 | Dec 7 | Gienal, Magnus | GEMs; concrete example: PHENIX heavy ion experiment | Serra |
13 | Dec 14 | Baertschi, Pascal | Particle identification techniques | Kilminster |
Group 2: Methods and detectors in condensed matter physics, 36-J-33 |
Responsible faculty members: C. Aegerter, J. Chang, H.W. Fink, J. Osterwalder, A. Schilling |
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| date | speaker | topic | responsible |
1 | Sept 28 | Salzmann, Bjoern | Angle-resolved photoemission: How to probe the band structure of solids | Osterwalder |
2 | Oct 5 | Meier, Matthias | How to generate ultrashort laser pulses | Osterwalder |
3 | Oct 12 | Meili, Georg | Measuring the electrical conductivity through individual molecules | Osterwalder |
4 | Oct 12 | Kunz, Nicolas | Measuring the electronic work function of a solid | Osterwalder |
5 | Oct 19 | Kretz, Patrick | Neutron scattering: How to probe phonon's and magnon's | Chang |
6 | Oct 19 | Traber, Regina | Thermoelectricity: Converting heat to electricity | Chang |
7 | Oct 26 | Andersson, Paul- Magnus | Resonant x-ray scattering: Usage of 3rd generation synchrotrons | Chang |
8 | Oct 26 | von Arx, Karin | Quantum oscillation experiments to probe Fermi surfaces | Chang |
9 | Nov 2 at 12:15 | Schachtler, Daniel | Getting at molecular dynamics using Foerster Resonant Energy Transfer | Aegerter |
10 | Nov 9 at 12:15 | Ebersold, Michael | Beating the diffraction limit in light microscopy using stimulated emission | Aegerter |
11 | Nov 16 at 12:15 | Ivkovic, Mladen | Probing magnetic fields in solids using muon spin rotation | Aegerter |
12 | Nov 23 | Furrer, Remo | Smartphones I: Transmission of speech, music and movies - from Bell to the Smartphone | Schilling |
13 | Nov 30 | Tobler, Benjamin | Smartphones II: Electronic circuits and memories - from vacuum tubes and magnetic core memory to integrated circuits | Schilling |
14 | Dec 7 | Schmidli, Kevin | Smartphones III: Screens - from the cathode ray tube to the touchscreen | Schilling |
15 | Dec 14 | Doenmez, Eser | Liquid ionic gating: Turning insulators metallic | Chang |