Table of contents http://www.loc.gov/catdir/toc/wiley032/2003269979.html

### Available:*

Library | Call Number | Material Type | Home Location | Status | Item Holds |
---|---|---|---|---|---|

Searching... | QB981 .L567 2003 | Adult Non-Fiction | Non-Fiction Area | Searching... | Searching... |

### On Order

### Summary

### Summary

An Introduction to Modern Cosmology Third Edition is an accessible account of modern cosmological ideas. The Big Bang Cosmology is explored, looking at its observational successes in explaining the expansion of the Universe, the existence and properties of the cosmic microwave background, and the origin of light elements in the universe. Properties of the very early Universe are also covered, including the motivation for a rapid period of expansion known as cosmological inflation. The third edition brings this established undergraduate textbook up-to-date with the rapidly evolving observational situation.

This fully revised edition of a bestseller takes an approach which is grounded in physics with a logical flow of chapters leading the reader from basic ideas of the expansion described by the Friedman equations to some of the more advanced ideas about the early universe. It also incorporates up-to-date results from the Planck mission, which imaged the anisotropies of the Cosmic Microwave Background radiation over the whole sky. The Advanced Topic sections present subjects with more detailed mathematical approaches to give greater depth to discussions. Student problems with hints for solving them and numerical answers are embedded in the chapters to facilitate the reader's understanding and learning.

Cosmology is now part of the core in many degree programs. This current, clear and concise introductory text is relevant to a wide range of astronomy programs worldwide and is essential reading for undergraduates and Masters students, as well as anyone starting research in cosmology.

### Author Notes

Andrew Liddle is Professor of Astrophysics at the University of Sussex.

### Reviews 1

### Choice Review

Liddle (Univ. of Sussex, UK) offers a new edition of his book (1st ed., CH, Oct'99), aimed at introductory cosmology students. A good background in physics is required, but as the author points out, "the emphasis is aimed at physical intuition rather than mathematical rigor." The main updated addition is a section of advanced topics at the end of the book. They include general relativity, neutrino cosmology, baryogenesis, and structures in the universe. Some of the chapters have been rearranged, and the latest observational material on cosmology has been added. Overall, the book is complete and up-to-date. It is not as comprehensive as Scott Dodelson's Modern Cosmology (CH, Oct'03), or P.J.E. Peebles's Principles of Physical Cosmology (CH, Nov'93), but it would serve as a good introduction to the study of these and other more advanced books. The book offers a good selection of problems at the end of the chapters, with answers given at the end of the book, and numerous diagrams. Overall, an excellent introduction of cosmology, and at this level it is hard to beat. ^BSumming Up: Highly recommended. Upper-division undergraduates through professionals. B. R. Parker emeritus, Idaho State University

### Table of Contents

Preface | p. xi |

Constants, conversion factors and symbols | p. xiv |

1 A (Very) Brief History of Cosmological Ideas | p. 1 |

2 Observational Overview | p. 3 |

2.1 In visible light | p. 3 |

2.2 In other wavebands | p. 7 |

2.3 Homogeneity and isotropy | p. 8 |

2.4 The expansion of the Universe | p. 9 |

2.5 Particles in the Universe | p. 11 |

2.5.1 What particles are there? | p. 11 |

2.5.2 Thermal distributions and the black-body spectrum | p. 13 |

3 Newtonian Gravity | p. 17 |

3.1 The Friedmann equation | p. 18 |

3.2 On the meaning of the expansion | p. 21 |

3.3 Things that go faster than light | p. 21 |

3.4 The fluid equation | p. 22 |

3.5 The acceleration equation | p. 23 |

3.6 On mass, energy and vanishing factors of c[superscript 2] | p. 24 |

4 The Geometry of the Universe | p. 25 |

4.1 Flat geometry | p. 25 |

4.2 Spherical geometry | p. 26 |

4.3 Hyperbolic geometry | p. 28 |

4.4 Infinite and observable Universes | p. 29 |

4.5 Where did the Big Bang happen? | p. 29 |

4.6 Three values of k | p. 30 |

5 Simple Cosmological Models | p. 33 |

5.1 Hubble's law | p. 33 |

5.2 Expansion and redshift | p. 34 |

5.3 Solving the equations | p. 35 |

5.3.1 Matter | p. 36 |

5.3.2 Radiation | p. 37 |

5.3.3 Mixtures | p. 38 |

5.4 Particle number densities | p. 39 |

5.5 Evolution including curvature | p. 40 |

6 Observational Parameters | p. 45 |

6.1 The expansion rate H[subscript 0] | p. 45 |

6.2 The desnity parameter [Omega subscript 0] | p. 47 |

6.3 The deceleration parameter q[subscript 0] | p. 48 |

7 The Cosmological Constant | p. 51 |

7.1 Introducing [Lambda] | p. 51 |

7.2 Fluid description of [Lambda] | p. 52 |

7.3 Cosmological models with [Lambda] | p. 53 |

8 The Age of the Universe | p. 57 |

9 The Density of the Universe and Dark Matter | p. 63 |

9.1 Weighing the Universe | p. 63 |

9.1.1 Counting stars | p. 63 |

9.1.2 Nucleosynthesis foreshadowed | p. 64 |

9.1.3 Galaxy rotation curves | p. 64 |

9.1.4 Galaxy cluster composition | p. 66 |

9.1.5 Bulk motions in the Universe | p. 67 |

9.1.6 The formation of structure | p. 68 |

9.1.7 The geometry of the Universe and the brightness of supernovae | p. 68 |

9.1.8 Overview | p. 69 |

9.2 What might the dark matter be? | p. 69 |

9.3 Dark matter searches | p. 72 |

10 The Cosmic Microwave Background | p. 75 |

10.1 Properties of the microwave background | p. 75 |

10.2 The photon to baryon ratio | p. 77 |

10.3 The origin of the microwave background | p. 78 |

10.4 The origin of the microwave background (advanced) | p. 81 |

11 The Early Universe | p. 85 |

12 Nucleosynthesis: The Origin of the Light Elements | p. 91 |

12.1 Hydrogen and Helium | p. 91 |

12.2 Comparing with observations | p. 94 |

12.3 Contrasting decoupling and nucleosynthesis | p. 96 |

13 The Inflationary Universe | p. 99 |

13.1 Problems with the Hot Big Bang | p. 99 |

13.1.1 The flatness problem | p. 99 |

13.1.2 The horizon problem | p. 101 |

13.1.3 Relic particle abundances | p. 102 |

13.2 Inflationary expansion | p. 103 |

13.3 Solving the Big Bang problems | p. 104 |

13.3.1 The flatness problem | p. 104 |

13.3.2 The horizon problem | p. 105 |

13.3.3 Relic particle abundances | p. 106 |

13.4 How much inflation? | p. 106 |

13.5 Inflation and particle physics | p. 107 |

14 The Initial Singularity | p. 111 |

15 Overview: The Standard Cosmological Model | p. 115 |

Advanced Topic 1 General Relativistic Cosmology | p. 119 |

1.1 The metric of space-time | p. 119 |

1.2 The Einstein equations | p. 120 |

1.3 Aside: Topology of the Universe | p. 122 |

Advanced Topic 2 Classic Cosmology: Distances and Luminosities | p. 125 |

2.1 Light propagation and redshift | p. 125 |

2.2 The observable Universe | p. 128 |

2.3 Luminosity distance | p. 128 |

2.4 Angular diameter distance | p. 132 |

2.5 Source counts | p. 134 |

Advanced Topic 3 Neutrino Cosmology | p. 137 |

3.1 The massless case | p. 137 |

3.2 Massive neutrinos | p. 139 |

3.2.1 Light neutrinos | p. 139 |

3.2.2 Heavy neutrinos | p. 140 |

3.3 Neutrinos and structure formation | p. 140 |

Advanced Topic 4 Baryogenesis | p. 143 |

Advanced Topic 5 Structures in the Universe | p. 147 |

5.1 The observed structures | p. 147 |

5.2 Gravitational instability | p. 149 |

5.3 The clustering of galaxies | p. 150 |

5.4 Cosmic microwave background anisotropies | p. 152 |

5.4.1 Statistical description of anisotropies | p. 152 |

5.4.2 Computing the C[subscript l] | p. 154 |

5.4.3 Microwave background observations | p. 155 |

5.4.4 Spatial geometry | p. 156 |

5.5 The origin of structure | p. 157 |

Bibliography | p. 161 |

Numerical answers and hints to problems | p. 163 |

Index | p. 167 |