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Article Contents
- ABSTRACT
- 1.OVERVIEW
- 1.1.The Universe at Large
- 1.1.1.Homogeneity and Isotropy
- 1.1.2.Scale Factors, Redshifts
and all that
- 1.1.3.Important quantities:
H0,
0,
c
- 1.2.The Hubble Parameter h
- 1.3.The Cosmological Constant
- 1.3.1.Expansion with
- 1.3.2.The
parameter
- 1.3.3.Why introduce
?
- 1.4.The Value of
0
- 1.4.1.The Deceleration Parameter
q0
- 1.4.2.The classical approach
again
- 1.4.3.Cosmic Nucleosynthesis
- 1.4.4.0
from Hubble flow deviations
- 1.5. = 1, Dark
Matter and Inflation
- 1.5.1.Flatness and Inflation
- 2.INHOMOGENEOUS UNIVERSE - OBSERVATIONS
- 2.1.Preliminaries
- 2.1.1.2-Point Correlation
Functions
- 2.1.2.The Power Spectrum
- 2.1.3.Biasing
- 2.2.Projected Surveys
- 2.3.Redshift Surveys
- 2.3.1.Optical Galaxy Samples
- 2.3.2.Surveys based on the
IRAS catalogue
- 2.3.3.Pencil Beam Surveys
- 2.4.Surveys with Independent
Distance Estimates
- 2.4.1.The Rubin-Ford Effect
- 2.4.2.Samples of Elliptical
Galaxies
- 2.4.3.Samples of spiral
galaxies
- 2.4.4.The "Real"
3-Dimensional Distribution
- 2.5.Clusters and Voids
- 2.5.1.Galaxy Clusters
- 2.5.2.The Cluster-Cluster
Correlation Function
- 2.5.3.Voids
- 2.6.Great Attractors, Dipoles and
all that
- 2.6.1.The Great Attractor and
Others
- 2.6.2.Dipole Convergence
- 2.6.3.Large Scale Flows and
CBR Anisotropy
- 2.7.Velocity Correlations
- 3.CLUSTERING MEASURES
- 3.1.Two-Point Correlation
Functions
- 3.2.Higher Order Correlation
Functions
- 3.3.Counts in cells
- 3.4.Genus
- 3.5.Multi-Fractals
- 4.THE INHOMOGENEOUS UNIVERSE - THEORY
- 4.1.The Origin of the Fluctuation
Spectrum
- 4.2.Modelling the Evolution of Large
Scale Structure
- 4.2.1.CDM models
- 4.2.2.CDM with "gas"
- 4.2.3.Adhesion Model
- 4.2.4.Classical Pancakes
- 4.2.5.Decaying WIMPS
- 4.3.Formation of Galaxy Clusters
- 4.4.Understanding Large Scale
Structure
- 5.CONCLUSIONS
- 6.REFERENCES
- 7.BOOKS ON COSMOLOGY