(1) ``Principles of Physical Cosmology'' by P.J.E. Peebles (Princeton University Press, 1993).
and the secondary goal is to introduce the most important current research topics.
After this class, you should be able to appreciate the significance of new papers appearing
on the subject on astro-ph.
Students will be expected to lead some of these discussions.
recommended, rather than "required". They have been placed on reserve in the physics
library. We will rely most heavily on the first two of these (Peebles and Dodelson).
This is a comprehensive book that is still reasonably up-to-date, covering essentially
all current research topics. It emphasizes physical concepts over formal derivations,
and focuses on the ``astrophysics'' of the universe during and after recombination.
(2) "Modern Cosmology" by S. Dodelson (Academic Press, 2003).
This book has a much more formal and up-to-date coverage, with detailed derivations,
of recent ``hot'' topics, such as linear perturbation theory, CMB anisotropies,
weak lensing, dark energy, and cosmological parameter estimation methods.
(3) ``The Early Universe'' by E.W. Kolb and M.S. Turner (Addison-Wesley, 1993).
This is another more formal book, although mostly without detailed derivations.
It focuses on particle physics aspects, and on the early universe before recombination.
(4) "Structure Formation in the Universe" by T. Padmanabhan (Cambridge University Press, 1995).
This book is intermediate between Peebles and Kolb & Turner in comprehensiveness
and in the level of formality. The parts beyond the basic material is a bit out
of date. However, the book is still quite useful, especially for topics in
non-linear structure formation.
(5) "Cosmological Physics" by J. Peacock (Cambridge University Press, 1999).
This book is relatively more recent and comprehensive, with coverage of topics such as
gravitational lensing or active galaxies. It is formal, but is not self-contained.
We may occassionally use it as a reference.
I. OBSERVATIONAL/HISTORICAL OVERVIEW
1/21
The Standard Model: Summary
Peebles 1,2; Dodelson 1; [slides]
1/26
The Standard Model: Observational Support
Peebles 6; Dodelson 1; [slides]
1/28
No class
-
2/2
Visible Matter: Galaxies and Large-Scale Structures
Peebles 3; Peacock 13; [slides]
2/4
Evidence for Dark Matter and Dark Energy
Peebles 18; Dodelson 2.4; Peacock 12; DETF Report
II. THE SMOOTH UNIVERSE
2/9 HW1 out
Introduction to GR
Peebles 8,9; Narlikar 2.1-2.5
2/11
Geometry and the Robertson-Walker Metric
Peacock 3.1; Kolb & Turner 2
2/16
Friedmann Equation, Stress-Energy Tensors
Peebles 4,5,10
2/18
Solutions of the Friedmann Equation
Kolb & Turner 3.1-3.2
2/23 HW1 due
Cosmological Tests, Dark Energy
Peebles 13, notes
2/25 HW2 out
Cosmological Tests, Dark Energy
Peebles 13, notes
3/2
Thermal History
Peebles 6; Kolb & Turner 3.3-3.5 and 5.1-5.4
3/4
Big Bang Nucleosynthesis
Kolb & Turner 4
3/9
Recombination
Peebles 6
3/11 HW2 due; Project out
Puzzles in Standard Model
Ryden 11.1-11.4; Kolb & Turner 8.1
3/16
No class - Spring Break
-
3/18
No class - Spring Break
-
3/23 HW3 out
Inflation as a Solution
Ryden 11.1-11.4; Kolb & Turner 8.1
3/25
Physics of Inflation: Phase Transitions + Scalar Field Dynamics
Peebles 17; Kolb & Turner 8.2, 8.3 (also 7.1.1)
III. LINEAR PERTURBATIONS
3/30
The Origin of Density Perturbations
Peebles 17; Peacock 10.4
4/1
Linear Evolution
Padmanabhan 4.1, 4.2, 4.6
4/6
Power Spectrum
Padmanabhan 4.7 and 5.1-5.3; Kolb & Turner 9.3
4/8 HW3 due
CMB Anisotropies
Dodelson 8; Tour of CMB Physics
4/13 HW4 out
Weak Gravitational Lensing
Dodelson 10
4/15
Cosmological Parameter Estimation
Dodelson 11; DETF Report
III. NONLINEAR EVOLUTION AND GALAXY FORMATION
4/20
Spherical Collapse, Zeldovich Pancakes
Padmanabhan 8
4/22
Press-Schechter and Numerical Simulations
Padmanabhan 5.8; Peacock 17.2
4/27 HW4 due
Hierarchical Assembly, Cooling, Characteristic Mass
Peacock 17.1; Peebles 22
4/29
Lyman Alpha forest, Reionization
Peebles 23; Peacock 12.2
5/4 Project Due
Lyman Alpha forest, Reionization
Peebles 23; Peacock 12.2