CMB Polarization from Patchy Reionization Gil Holder.

Slides:



Advertisements
Similar presentations
Future 21cm surveys and non-Gaussianity Antony Lewis Institute of Astronomy, Cambridge work with Anthony Challinor & Richard Shaw.
Advertisements

CMB and cluster lensing Antony Lewis Institute of Astronomy, Cambridge Lewis & Challinor, Phys. Rept : astro-ph/
Institute of Astronomy, Cambridge
21cm cosmology T. Chang, UP, J. Peterson, P. McDonald PRL 100, (2008) UP, L. Staveley-Smith, J. Peterson, T. Chang, MNRAS, 394, 6 (2009)
QUIET Q/U Imaging ExperimenT Osamu Tajima (KEK) QUIET collaboration 1.
Probing the End of Reionization with High-redshift Quasars Xiaohui Fan University of Arizona Mar 18, 2005, Shanghai Collaborators: Becker, Gunn, Lupton,
Motivation 40 orbits of UDF observations with the ACS grism Spectra for every source in the field. Good S/N continuum detections to I(AB) ~ 27; about 30%
First Stars, Quasars, and the Epoch of Reionization Jordi Miralda Escudé Institut de Ciències de l’Espai (IEEC-CSIC, ICREA), Barcelona. Instituto de Astrofísica.
21cm Lines and Dark Ages Naoshi Sugiyama Department of Physics and Astrophysics Nagoya University Furlanetto & Briggs astro-ph/ , Zaldarriaga et.
End of Cosmic Dark Ages: Observational Probes of Reionization History Xiaohui Fan University of Arizona New Views Conference, Dec 12, 2005 Collaborators:
ESO Recent Results on Reionization Chris Carilli (NRAO) LANL Cosmology School, July 2011 Review: constraints on IGM during reionization  CMB large scale.
Suman Majumdar Department of Astronomy and Oskar Klein Centre Stockholm University Redshift Space Anisotropies in the EoR 21-cm Signal: what do they tell.
Measuring the Gas in Galaxies in the Distant Past Philip Lah Too late. Here comes the SKA.
Epoch of Reionization Tomography with the CSO Wide-field C+ spectral mapping and correlation with HI Matt Bradford CSO NSF visit: October 12, 2011 CSO.
Cosmology with the 21 cm Transition Steve Furlanetto Yale University September 25, 2006 Steve Furlanetto Yale University September 25, 2006.
Measuring the local Universe with peculiar velocities of Type Ia Supernovae MPI, August 2006 Troels Haugbølle Institute for Physics.
K.S. Dawson, W.L. Holzapfel, E.D. Reese University of California at Berkeley, Berkeley, CA J.E. Carlstrom, S.J. LaRoque, D. Nagai University of Chicago,
Recycling the Intergalactic Medium
On scales larger than few arcminutes, the millimeter sky is dominated by CMB temperature fluctuations. A significant fraction of these CMB photons encode.
Quintessence – Phenomenology. How can quintessence be distinguished from a cosmological constant ?
The Structure Formation Cookbook 1. Initial Conditions: A Theory for the Origin of Density Perturbations in the Early Universe Primordial Inflation: initial.
A Primer on SZ Surveys Gil Holder Institute for Advanced Study.
Probing Dark Matter with the CMB and Large-Scale Structure 1 Cora Dvorkin IAS (Princeton) Harvard (Hubble fellow) COSMO 2014 August 2014, Chicago.
Large Scale Simulations of Reionization Garrelt Mellema Stockholm Observatory Collaborators: Ilian Iliev, Paul Shapiro, Marcelo Alvarez, Ue-Li Pen, Hugh.
Physics 133: Extragalactic Astronomy and Cosmology Lecture 14; March
Inflation, Expansion, Acceleration Two observed properties of the Universe, homogeneity and isotropy, constitute the Cosmological Principle Manifest in.
Modelling radio galaxies in simulations: CMB contaminants and SKA / Meerkat sources by Fidy A. RAMAMONJISOA MSc Project University of the Western Cape.
Chapter 26: Cosmology How big is the universe? How long has it been around and how long will it last?
Polarization-assisted WMAP-NVSS Cross Correlation Collaborators: K-W Ng(IoP, AS) Ue-Li Pen (CITA) Guo Chin Liu (ASIAA)
Moscow cm Cosmology Collaborators: Collaborators: Rennan Barkana, Stuart Wyithe, Matias Zaldarriaga Avi Loeb Harvard University.
130 cMpc ~ 1 o z~ = 7.3 Lidz et al ‘Inverse’ views of evolution of large scale structure during reionization Neutral intergalactic medium via HI.
Cosmology and Dark Matter II: The inflationary Universe Jerry Sellwood.
The Cosmic Microwave Background Lecture 2 Elena Pierpaoli.
Benedetta Ciardi MPA Reionization Nucleosynthesis ‘Dark Ages’ Big Bang Fluctuations begin to condense into first stars and protogalaxies Decoupling matter-radiation.
Constraints on the neutrino mass by future precise CMB polarization and 21cm line observations Yoshihiko Oyama The Graduate University for Advanced Studies.
Constraints on Dark Energy from CMB Eiichiro Komatsu University of Texas at Austin Dark Energy February 27, 2006.
The 21cm signature of the First Stars Xuelei Chen 陳學雷 National Astronomical Observatory of China Xuelei Chen 陳學雷 National Astronomical Observatory of China.
Nick Gnedin (Once More About Reionization)
Galaxies and galaxy clusters at mm wavelengths: the view from the South Pole Telescope Gil Holder.
Lecture 5: Matter Dominated Universe: CMB Anisotropies and Large Scale Structure Today, matter is assembled into structures: filaments, clusters, galaxies,
Andrea Ferrara SISSA/International School for Advanced Studies, Trieste Cosmic Dawn and IGM Reionization.
Low Frequency Background and Cosmology Xuelei Chen National Astronomical Observatories Kashigar, September 10th 2005.
Dark Matter and the Large Scale Structure of the Universe 暗物質及宇宙建構
the National Radio Astronomy Observatory – Socorro, NM
Radiation backgrounds from the first sources and the redshifted 21 cm line Jonathan Pritchard (Caltech) Collaborators: Steve Furlanetto (Yale) Marc Kamionkowski.
Mário Santos1 EoR / 21cm simulations 4 th SKADS Workshop, Lisbon, 2-3 October 2008 Epoch of Reionization / 21cm simulations Mário Santos CENTRA - IST.
The Distributions of Baryons in the Universe and the Warm Hot Intergalactic Medium Baryonic budget at z=0 Overall thermal timeline of baryons from z=1000.
Reionisation and the cross-correlation between the CMB and the 21-cm line fluctuations Hiroyuki Tashiro IAS, ORSAY 43rd Rencontres de Moriond La Thuile,
Galaxy Formation: Simple or Not? The Cosmic Dark Age Telescope: 6.5 m Infrared Optimized Next Generation Space Telescope to Launch in 2013 (+ …. Years)
INFRARED-BRIGHT GALAXIES IN THE MILLENNIUM SIMULATION AND CMB CONTAMINATION DANIEL CHRIS OPOLOT DR. CATHERINE CRESS UWC.
Primordial black holes B. Czerny Copernicus Astronomical Center, Warsaw on behalf of collaboration: D. Cline, B. Czerny, A. Dobrzycki, A. Janiuk, C. Matthey,
From Avi Loeb reionization. Quest to the Highest Redshift.
Bwdem – 06/04/2005doing cosmology with galaxy clusters Cosmology with galaxy clusters: testing the evolution of dark energy Raul Abramo – Instituto de.
Cosmic radiative feedback from reionization By Ruben Salvaterra (OA-Brera) C. Burigana (IASF-Bologna) R. Schneider (OA-Firenze) T. Choudhury (Cambridge)
A hot topic: the 21cm line III Benedetta Ciardi MPA.
The Twilight Zone of Reionization Steve Furlanetto Yale University March 13, 2006 Steve Furlanetto Yale University March 13, 2006 Collaborators: F. Briggs,
Remote Quadrupole Measurements from Reionization Gil Holder Collaborators: Jon Dudley; Alex van Engelen (McGill) Ilian Iliev (CITA/Zurich); Olivier Dore.
Reionization science from the CMB after Planck Michael Mortonson University of Chicago July 2, 2009.
The Dark Age and Cosmology Xuelei Chen ( 陈学雷 ) National Astronomical Observarories of China The 2nd Sino-French Workshop on the Dark Universe, Aug 31st.
The distant Universe and something about gravitational waves.
Study of Proto-clusters by Cosmological Simulation Tamon SUWA, Asao HABE (Hokkaido Univ.) Kohji YOSHIKAWA (Tokyo Univ.)
Cheng Zhao Supervisor: Charling Tao
The cross-correlation between CMB and 21-cm fluctuations during the epoch of reionization Hiroyuki Tashiro N. Aghanim (IAS, Paris-sud Univ.) M. Langer.
Fingerprints in the CMB from Reionization Gil Holder.
Smoke This! The CMB, the Big Bang, Inflation, and WMAP's latest results Spergel et al, 2006, Wilkinson Microwave Anisotropy Probe (WMAP) Three Year results:
Standard ΛCDM Model Parameters
Shintaro Nakamura (Tokyo University of Science)
Recovery of The Signal from the Epoch of Reionization
Detection of integrated Sachs-Wolfe effect by cross-correlation of the
C M B S e c o n d a r y A n i s o t r o p i e s a t
Presentation transcript:

CMB Polarization from Patchy Reionization Gil Holder

Outline Patchy reionization CMB polarization Correlation with redshifted 21cm radiation Remote quadrupole measurements & Hubble volume 3D reconstruction

Patchy Reionization First stars ``blow bubbles’’ in cosmic web Strongly inhomogeneous Bubbles growing, becoming more numerous, range in bubble sizes… Furlanetto et al

CMB Polarization quadrupole anisotropy + Thomson scattering =polarization

Polarization from Patchy Reionization Very small scales Very small signal Dore et al

CMB Pol. & Patchy Reionization Unlikely to be a problem for inflation B modes Mainly confined to single Stokes component Dore et al

Thomson optical depth/21cm anti-correlation Holder, Iliev & Mellema Mass density Thomson optical depth 21 cm emission (slice dz~1; 100 Mpc on a side)

Some equations… 21 cm fluctuations Optical depth Optical depth fluctuations 21 cm - (optical depth) anti-correlation

Thomson optical depth/21cm anti-correlation Holder, Iliev & Mellema Early times: blowing bubbles (ionize and awe) Late times: last throes of neutral overdense regions

The benefits of alien collaborators at z~10 Surface of last scattering at z=10 has little overlap with ours More than 1/2 of signal from “dark ages” Good enough data over large patch of sky allows reconstruction of “initial conditions” for most of Hubble volume Needs polarized 0.1 uK on arcminute scales and mK redshifted 21 cm

Comparison with Galaxy Clusters Z~9 : mean density x1000, comoving 10 Mpc=1 Mpc At z=0, this is a galaxy cluster! Remote quadrupoles with galaxy clusters suggested by Kamionkowski & Loeb –Z=10 has less overlap with z=0 CMB –Optical depth from 21cm instead of ??? –No galaxy cluster in the field (radio halos, AGN, CMB lensing) SZ Image by Laurie Shaw

How hard is this? Need 100 nK in CMB polarization on arcminutes scales (basically 100 times the collecting area of APEX) Need few mK at wavelengths of few m (likely needs SKA) Radio point sources will be particularly nasty Big bubbles around largest sources could have 10x larger signal and detectable with current technology

Summary Fine-scale polarization measurements allow new cosmological insights Redshifted 21cm emission well anti- correlated with CMB polarization Cross-comparison allows measurement of quadrupoles at z~10 (but signals are small) –21cm gives you optical depth –CMB polarization=optical depth * quadrupole –mK radio signal and 100 nK CMB pol on 1’ scales