Session

Parallel Session Astro+Cosmo

5 Jun 2019, 14:00

Conveners

Parallel Session Astro+Cosmo

  • Ed Copeland (Nottingham University)

Parallel Session Astro+Cosmo

  • Denise Boncioli

Presentation materials

There are no materials yet.

  1. Cristian Rusu (National Astronomical Observatory of Japan)
    05/06/2019, 14:00
  2. Christian Reichardt
    05/06/2019, 14:20
  3. Clement Pryke (University of Minnesota)
    05/06/2019, 14:40
  4. Federico Nati
    05/06/2019, 15:00
  5. Victoria de Sainte Agathe
    05/06/2019, 15:20

    Just after inflation, due to the coupling between photons and baryons, sound waves were created and propagated in the primordial plasma until recombination. At that time, these so called Baryonic Acoustic Oscillations (BAO) left their imprint in the matter distribution. This feature is still measurable as a small excess (1%) in the matter 2-point correlation function.
    This BAO peak can be...

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  6. Gwenhaël de Wasseige (APC, CNRS)
    05/06/2019, 15:40
  7. Giulia Illuminati (IFIC Valencia)
    05/06/2019, 16:30
  8. Juliana Stachurska (DESY)
    05/06/2019, 16:50
  9. Daniel García Fernández (DESY)
    05/06/2019, 17:10
  10. Dr Harm Schoorlemmer (Max-Planck-Institut für Kernphysik, Heidelberg)
    05/06/2019, 17:30
  11. Alberto Dominguez (Universidad Complutense Madrid)
    05/06/2019, 17:50
  12. Antonio Stamerra (INAF, Rome)
    05/06/2019, 18:10
  13. Andreas Zech (Observatoire de Paris)
    05/06/2019, 18:30
  14. Olivier Hervet (UC Santa Cruz)
    05/06/2019, 18:50
  15. Lucy Fortson (University of Minnesota)
    05/06/2019, 19:10
  16. Mrs Victoria de Sainte Agathe (LPNHE Paris)
    Oral

    Just after inflation, due to the coupling between photons and baryons, sound waves were created and propagated in the primordial plasma until recombination. At that time, these so called Baryonic Acoustic Oscillations (BAO) left their imprint in the matter distribution. This feature is still measurable as a small excess (1%) in the matter 2-point correlation function.
    This BAO peak can be...

    Go to contribution page
  17. Juliana Stachurska (DESY)
    Oral

    The IceCube Neutrino Observatory at the South Pole, which detects Cherenkov light from charged particles produced in neutrino interactions, firmly established the existence of an astrophysical high-energy neutrino component. The study of astrophysical neutrinos provides important clues about cosmic particle accelerators. In particular, the tau neutrino fraction on Earth is directly...

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  18. Elena Sellentin (Leiden University)
  19. Prof. Lucy Fortson (University of Minnesota)
    Oral

    The VERITAS observatory is a ground-based air Cherenkov telescope array that detects very-high-energy gamma-ray emission (VHE;>100 GeV) from a range of astrophysical sources including nearly 40 Active Galactic Nuclei (AGN). The vast majority of these AGN are blazars where relativistic plasma jets aligned within a few degrees to our line of sight cause the observed radiation to be highly...

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  20. Giulia Illuminati (IFIC)
    Oral

    The search for astrophysical neutrinos in the TeV-PeV range is among the primary goals of underwater neutrino telescopes like ANTARES and KM3NeT. The first significant evidence of a cosmic diffuse flux of high-energy neutrinos together with the first identification of a neutrino source, TXS 0506+056, reported by the IceCube collaboration, represented a crucial step forward in the field of...

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  21. Clement Pryke (University of Minnesota)
    Oral

    The BICEP/Keck series of experiments are small aperture
    refracting telescopes designed to measure the polarization pattern
    of the Cosmic Microwave Background at degree angular scales.
    The latest BK15 results use measurements at 95, 150 and 220GHz,
    in conjunction with additional bands from WMAP and Planck,
    to constrain the foreground signal and set the limit r<0.07
    (95% confidence). I will...

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  22. Gwenhaël de Wasseige (APC, CNRS)
    Oral

    The main motivation to search for solar flare neutrinos comes from their hadronic origin. Being inherent products of high-energy proton collisions with the chromosphere, they represent a direct probe of the protons accelerated towards the Chromosphere. Using a multi-messenger approach combining neutrinos and gamma rays, it is therefore possible to constrain the proton acceleration taking place...

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