Cover image for From First Light to Reionization : The End of the Dark Ages.
From First Light to Reionization : The End of the Dark Ages.
Title:
From First Light to Reionization : The End of the Dark Ages.
Author:
Stiavelli, Massimo.
ISBN:
9783527627370
Personal Author:
Edition:
1st ed.
Physical Description:
1 online resource (232 pages)
Contents:
From First Light to Reionization -- Preface -- Contents -- Preface -- 1 Introduction -- 1.1 First Light and Reionization -- 1.2 The Cosmological Framework -- 1.3 Organization of this Book -- 1.4 Key Observations in this Field -- Part 1 Theory -- 2 The First Stars -- 2.1 Overview -- 2.1.1 First Light -- 2.1.2 Forming the First Stars -- 2.1.3 The Legacy of the First Stars -- 2.2 Before the First Stars -- 2.2.1 Recombination and Residual Ionization Fraction -- 2.2.2 The Formation of Molecular Hydrogen -- 2.2.3 Cooling Functions -- 2.3 Forming the First Stars -- 2.3.1 Perturbations in the Early Universe -- 2.3.2 Collapse of Perturbations in the Early Universe -- 2.3.3 Cooling and the Jeans Instability -- 2.3.4 Properties of the First Stars -- 2.3.5 Remnants and Signatures of a Population III -- 2.4 Primordial HII Regions -- 2.5 What if Dark Matter is not Cold? -- 2.6 Hints for Further Study -- 3 The First Star Clusters and Galaxies -- 3.1 Overview -- 3.2 Subsequent Generations of Stars -- 3.2.1 Second-Generation Population III Stars -- 3.2.2 Population III Stars Forming in Self-Shielding Halos -- 3.2.3 Late Population III Star Formation by Atomic-Hydrogen Cooling in Massive Halos -- 3.2.4 Termination of the First Stars Phase -- 3.3 Containing Gas in the Halos of Population III Stars -- 3.3.1 Ionization Heating and Gas Temperature -- 3.3.2 The Escape of Gas Heated by Ionization -- 3.3.3 The Escape of Gas Following a Supernova Explosion -- 3.3.4 Population II.5 -- 3.4 The First Star Clusters -- 3.4.1 Clusters of Population III Stars and of Metal-Poor Stars -- 3.4.2 The Origin of Globular Clusters -- 3.5 The First Galaxies -- 3.6 The First Active Galactic Nuclei -- 3.6.1 Population III Black Holes -- 3.6.2 Black-Hole Mergers -- 3.6.3 The Highest-Redshift QSOs -- 3.6.4 Direct Collapse to Black Holes -- 3.7 Low-Metallicity HII Regions.

3.8 Numerical Techniques and Their Limitations -- 3.8.1 Collisionless Dynamics -- 3.8.2 Collisionless Dynamics: Particle-Mesh Codes -- 3.8.3 Collisionless Dynamics: Treecodes -- 3.8.4 Gas Dynamics -- 3.8.5 Gas Dynamics: Smooth Particle Hydrodynamics -- 3.8.6 Gas Dynamics: Eulerian Codes -- 3.8.7 Improving Resolution Through Mesh Refinement -- 3.8.8 Radiative Transfer -- 3.9 Hints for Further Study -- 4 Cosmic Reionization -- 4.1 Overview -- 4.2 The Properties of the Sources of Reionization -- 4.2.1 The Surface Brightness of Reionization Sources -- 4.2.2 Reionization in a Hydrogen-Only IGM -- 4.2.3 Reionization in a Hydrogen-Helium IGM -- 4.2.4 Results for a Homogeneous IGM -- 4.2.5 Mean Metallicity at Reionization -- 4.3 Adding Realism to the Calculations -- 4.3.1 Escape of Ionizing Photons -- 4.3.2 Clumpy IGM -- 4.3.3 Two-Parameter Models -- 4.4 Luminosity Function of Ionizing Sources -- 4.4.1 Detecting Lyman α from Ionizing Sources -- 4.5 Reionization by Population III Stars -- 4.6 How Is the Intergalactic Medium Enriched? -- 4.7 Reheating of the Intergalactic Medium -- 4.8 Keeping the Intergalactic Medium Ionized -- 4.9 Hints for Further Study -- Part 2 Observational Techniques and their Results -- 5 Studying the Epoch of Reionization of Hydrogen -- 5.1 Overview -- 5.2 Gunn-Peterson Troughs in Redshift 6 QSOs -- 5.2.1 A Simple Gunn-Peterson Test -- 5.2.2 The Gunn-Peterson Trough -- 5.2.3 Lyman Series Lines -- 5.2.4 Metal Lines -- 5.2.5 HII Region Size Test -- 5.2.6 Dark Gaps -- 5.2.7 An Assessment of the Indication from QSOs Spectra -- 5.3 Lyman α Sources as Diagnostics of Reionization -- 5.3.1 Effect of a Finite Lyman α Line Width -- 5.3.2 Intrinsic Properties of Lyman α Emitters -- 5.3.3 Effect of a Local Ionized Bubble -- 5.3.4 A Realistic Lyman α Escape Model -- 5.3.5 Perspectives on Studying Reionization with Lyman α Sources.

5.3.6 Faint Lyman α Halos -- 5.4 Neutral-Hydrogen Searches -- 5.4.1 Other Applications of High-z 21-cm Observations -- 5.5 Compton Optical Depth -- 5.6 Lyman α Signature in the Diffuse Near-IR Background -- 5.7 Hints for Further Study -- 6 The First Galaxies and Quasars -- 6.1 Overview -- 6.2 The Lyman-Break Technique -- 6.2.1 The Lyman Break as a Function of Redshift -- 6.2.2 Synthetic Stellar Population Models -- 6.2.3 Redshift 6 Dropout Galaxies -- 6.2.4 Lyman-Break Galaxies at Redshift Greater than 6 -- 6.3 The Lyman α Excess Technique -- 6.4 The Balmer-Jump Technique -- 6.4.1 An Old Galaxy at Low or High Redshift? -- 6.5 Photometric Redshifts -- 6.6 Samples of High-Redshift Galaxies -- 6.6.1 Lyman-Break Galaxies at z = 6 -- 6.6.2 Lyman-Break Galaxies at z > 7 -- 6.6.3 Lyman α Emitters -- 6.6.4 High-Redshift QSOs -- 6.7 Fluctuations -- 6.8 Direct Detection of the First Stars -- 6.9 Hints for Further Study -- 7 Deep Imaging and Spectroscopy Surveys -- 7.1 Overview -- 7.2 Field Choice for a Deep Imaging Survey -- 7.3 Observing Techniques for Deep Imaging Surveys -- 7.3.1 General Considerations -- 7.3.2 Dithering -- 7.3.3 Super Bias and Super Dark -- 7.3.4 Flat Fielding -- 7.3.5 Image Combination -- 7.4 Self-Calibration -- 7.5 Catalogs -- 7.5.1 Layout of an Automated Photometry Algorithm -- 7.5.2 Sextractor Photometry Tips -- 7.5.3 Simulations -- 7.6 Cosmic Variance -- 7.7 The Gravitational Telescope -- 7.8 Deep Spectroscopy -- 7.8.1 Spectroscopic Analysis Techniques -- 7.8.2 Slit Spectroscopy of Faint Targets -- 7.8.3 Slitless Spectroscopy -- 7.9 Hints for Further Study -- 8 The Reionization of Helium -- 8.1 Overview -- 8.2 Gunn-Peterson Troughs in QSOs -- 8.3 Constraints from the Temperature of the IGM -- 8.4 Change in Metal-Line Ratios -- 8.5 Change in HI Lyman α Forest -- 8.6 Reionizing Hydrogen First and Helium Later.

8.7 A Limit on the Escape Fraction from Galaxies at z 3 -- 9 Future Instrumentation -- 9.1 Overview -- 9.2 The James Webb Space Telescope -- 9.2.1 Historical Remarks -- 9.2.2 The JWST Science Requirements Document -- 9.2.3 Overview of JWST Instrumentation -- 9.3 Other Space-Based Instrumentation -- 9.3.1 The Wide-Field Planetary Camera 3 -- 9.3.2 The Cosmic Origins Spectrograph -- 9.3.3 A Possible Future Large Telescope in Space -- 9.4 Large Ground-Based Telescopes -- 9.4.1 Ground vs. Space Comparison -- 9.4.2 Multiobject Spectroscopy -- 9.4.3 Very High Resolution Imaging -- 9.5 Observing 21-cm Radiation at High Redshift -- 9.5.1 Murchison Wide-Field Array -- 9.5.2 Low-Frequency Array -- 9.5.3 Square-Kilometer Array -- 9.5.4 A Radiotelescope on the Far Side of the Moon -- 9.6 Atacama Large Millimiter Array -- 9.7 Large Field of View Imaging -- 9.7.1 Large Synoptic Survey Telescope -- 9.7.2 Large Field of View Imaging from Space -- 9.8 Planck -- A Overview of Physical Concepts -- A.1 Cosmological Quantities -- A.2 Saha Equation -- A.3 Polytropic Stars -- A.4 Jeans Instability for a Two-Fluid System -- Index.
Abstract:
Dr. Stiavelli obtained his PhD at the Scuola Normale Superiore of Pisa in 1986. He has been a postdoctoral researcher at Rutgers University and a fellow at the European Southern Observatory in Garching. He has held positions at the Scuola Normale Superiore of Pisa (1992-1995), at the European Space Agency in Baltimore (1995-2000), and at the Space Telescope Science Institute in Baltimore where he currently has the position of James Webb Space T elescope Project Scientist. He is a member of the American Astronomical Society, of the American Association for the Advancement of Science, of the American Institute of Aeronautics and Astronautics and of the International Astronomical Union. He has chaired or served on several NASA committees and is a member of the Science Working Group of the James Webb Space Telescope. Stiavelli has observing experience at the major ground based observatories (Mauna Kea, ESO La Silla, ESO Paranal, KPNO, La Palma, Apache Point) and with every imaging instrument on the Hubble Space Telescope. He has authored or coauthored 83 research papers published in professional journals and 148 technical reports and other publications.
Local Note:
Electronic reproduction. Ann Arbor, Michigan : ProQuest Ebook Central, 2017. Available via World Wide Web. Access may be limited to ProQuest Ebook Central affiliated libraries.
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