Joel Meyers Canadian Institute for Theoretical Astrophysics

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Transcription:

Cosmological Probes of Fundamental Physics Joel Meyers Canadian Institute for Theoretical Astrophysics SMU Physics Colloquium February 5, 2018 Image Credits: Planck, ANL

The Cosmic Microwave Background Planck (2013)

Distance Redshift Relation The Expanding Universe - 1929 Hubble (1929) Image Credit: Observatories of the Carnegie Institute of Washington

Alpher, Bethe, Gamow (1948); Alpher, Herman (1948); Gamow (1948) Image Credits: American Scientist; Pearson Education Big Bang Cosmology Primordial Nucleosynthesis - 1948

Alpher, Bethe, Gamow (1948); Alpher, Herman (1948); Gamow (1948) Image Credit: William Kinney Big Bang Cosmology Prediction of Cosmic Microwave Background - 1948

Observations Begin First Detection of the Cosmic Microwave Background (CMB) - 1964 Penzias, Wilson (1965); Dicke, Peebles, Roll, Wilkinson (1965) Image Credit: Bell Labs

Precision Measurement First CMB Satellite - COBE - 1989-1996 Image Credit: NASA

Thermal Spectrum Confirmation of Hot Big Bang Cosmology - 1994 COBE FIRAS (1997)

Temperature Anisotropies Nearly Isotropic Motion-Induced Dipole Small Primary Anisotropies COBE DMR (1992)

Fluctuation Focus Mapping Anisotropies - WMAP - 2001-2010 Image Credit: NASA

Temperature Power [μk 2 ] CMB Angular Power Spectrum Large-Scale Plateau Acoustic Peaks Damping Tail Harmonic Transform of Two-Point Correlation Function Multipole Moment Image Credits: NASA/WMAP, Hu/Scientific American

Standard Model of Cosmology Flat ΛCDM Universe Primordial Fluctuations Contents Rescattering WMAP (2008)

Digging Deeper Beyond the Power Spectrum - Planck - 2009-2013 Image Credit: ESA

Gravitational Lensing Image Credit: ESA

CMB Lensing Hu and Okamoto (2002); Image Credit: Sigurd Naess

CMB Lensing Hu and Okamoto (2002); Image Credit: Sigurd Naess

Illuminating Dark Matter Planck (2013)

CMB Timeline 1948 Theoretical Prediction 1964 First Detection 1992 Spectrum and Anisotropies 2003 ΛCDM Cosmology 2013 Beyond the Power Spectrum 2018+ Beyond the Standard Model SIMONSOBSERVATORY

Next Generation CMB Experiments SIMONSOBSERVATORY Observing 2021-2022 Telescope array in Atacama Desert in Chile Observing mid-2020s Multiple telescopes in Atacama Desert and at South Pole Science Goals: Fundamental Physics: Primordial Gravitational Waves, Neutrino Properties, Light Relics Astrophysics: Mass Maps, Clusters, Cross-Correlations

CMB Polarization Density Perturbations T, E Gravitational Waves T, E, B Kamionkowski, Kosowsky, Stebbins (1997); Seljak, Zaldarriaga (1997) Image Credit: Hu

Primordial Gravitational Waves Unlensed B Modes Lensed B Modes Zaldarriaga, Seljak (1998); Kesden, Cooray, Kamionkowski (2002); Lyth (1997) ; CMB-S4 Science Book (including JM) (2016)

Neutrino Mass Super-Kamiokande (1999); Sudbury Neutrino Observatory (2001); CMB-S4 Science Book (including JM) (2016)

Effect of Neutrino Mass Eisenstein, Hu (1997); Kaplinghat, Knox, Song (2003); CMB-S4 Science Book (including JM) (2016)

Temperature [MeV] Light Relics Scale Factor PDG (2013); Mangano, et al. (2005); de Salas, Pastor (2016)

Observing Light Relics Primordial Abundances CMB Measurements Cooke, et al. (2014); Cyburt, et al. (2015), Planck (2015); Fischler, JM (2010); Millea, Knox, Fields (2015)

Big Bang Nucleosynthesis Increased N eff leads to: Increased Expansion Rate Decreased Time for Free Neutron Decay More Neutrons Available for Deuterium Formation Increased Helium-4 Density PDG (2013); Cooke, et al. (2014); Cyburt, et al. (2015); Bond, Fuller, Grohs, JM, Wilson (In prep.)

Effects of Light Relics on the CMB Damping Amplitude Shift Phase Shift Bashinsky, Seljak (2004); Hou, Keisler, Knox, Millea, Reichardt (2012); Follin, Knox, Millea, Pan (2015); Baumann, Green, JM, Wallisch (2015); Baumann, Green, Wallisch (2018)

Dark Radiation Gravitational Wave Constraints with N eff Axions Sterile neutrinos Dark photons Gravitinos Gravitational waves Chu, Cirelli (2006); Boyle, Buonanno (2007); Ackerman, et al. (2008); Steigman (2012); Meerburg, Hadzhiyska, Hlozek, JM (2015)

Thermal Relics and N eff Fermions Scalars Brust, Kaplan, Walters (2013); Chacko, Cui, Hong, Okui (2015); Adshead, Cui, Shelton (2016); CMB-S4 Science Book (including JM) (2016)

Axion Constraints Baumann, Green, Wallisch (2016)

Rel. Diff. E Power [μk 2 ] The Special Role of the Phase Shift Unique Robust Constraining N eff = 3.046 N fluid = 0 N eff = 2.046 N fluid = 1 Unlensed Lensed Bashinsky, Seljak (2004); Baumann, Green, JM, Wallisch (2015)

Delensing the CMB Green, JM, van Engelen (2016)

Benefits of Delensing Green, JM, van Engelen (2016)

CMB-S4 N eff Forecasts CMB-S4 Science Book (including JM) (2016)

Other CMB Targets Cosmic Inflation Astrophysics and Cross- Correlations Image Credit: Bock, et al (2006)

Thank You! Image Credits: BEBC/CERN and Planck/ESA