- LARGE SCALE STRUCTURE
OBSERVATIONS - Will J. Percival (2013)
- LARGE SCALE STRUCTURE OF THE
UNIVERSE - Alison L. Coil (2012)
- COSMOLOGICAL SHOCK WAVES -
A.M. Bykov et al. (2008)
- FUV AND X-RAY ABSORPTION IN THE
WARM-HOT INTERGALACTIC MEDIUM - P. Richter et al. (2008)
- DARK ENERGY AND THE ACCELERATING
UNIVERSE - J.A. Frieman et al. (2008)
- THE OBSERVATIONAL APPROACH TO
COSMOLOGY - Edwin Hubble (1937)
- LARGE SCALE STRUCTURE IN THE LOCAL
UNIVERSE: THE 2MASS GALAXY CATALOG - Thomas Jarrett (2004)
- LOGARITHMIC MAPS
OF THE UNIVERSE - J. Richard Gott III et al. (2003)
- LARGE-SCALE SURVEYS AND COSMIC
STRUCTURE - J.A. Peacock (2003)
- CLUSTERING STATISTICS IN
COSMOLOGY - Vicent J. Martínez and Enn Saar (2002)
- COSMOLOGICAL DYNAMICS -
Edmund Bertschinger (1993)
- AN ATLAS OF NEARBY LARGE-SCALE
STRUCTURES - Anthony Fairall (1998)
- THE LARGE-SCALE VELOCITY FIELD -
Michael A. Strauss (1996)
- TOPOLOGICAL DEFECTS IN COSMOLOGY -
Alejandro Gangui (2001)
- THE LARGE SCALE STRUCTURE OF THE
UNIVERSE - Bernard J.T. Jones (1992)
- LARGE-SCALE STRUCTURE IN THE UNIVERSE
INDICATED BY GALAXY CLUSTERS - Neta A. Bahcall (1988)
- HI REDSHIFT SURVEYS AND LARGE-SCALE
STRUCTURE - John J. Salzer and Martha P. Haynes (1996)
- LARGE-SCALE STRUCTURE, THEORY AND
STATISTICS - Peter Coles (2001)
- LARGE-SCALE STRUCTURE AT THE TURN OF THE
MILLENNIUM - Luigi Guzzo (1999)
- COSMOLOGY AND CLUSTER FORMATION
- P. J. E. Peebles (1990)
- LARGE SCALE STRUCTURE - Jaan Einasto (2001)
- GALAXIES IN THE UNIVERSE: AN INTRODUCTION
- Linda S. Sparke and John S. Gallagher, III (2000)
- CONSTRAINTS ON INFLATION - Pedro T.P. Viana
(2000)
- AN INTRODUCTION TO COSMOLOGICAL INFLATION
- Andrew R. Liddle (1999)
- ACCELERATION OF THE UNIVERSE - Andrew
R. Liddle (2000)
- OBSERVATIONAL TESTS OF INFLATION - Andrew
R. Liddle (1999)
- COSMIC INFLATION - Andreas Albrecht (2001)
- THE COSMOLOGICAL CONSTANT PROBLEMS -
Steven Weinberg (2000)
- WAS COSMIC INFLATION THE 'BANG' OF THE BIG
BANG? - A. Guth (1997)
- REDSHIFT SURVEYS AND COSMOLOGY - Matthew
Colless (2000)
- DYNAMICS OF COSMIC FLOWS - Avishai Dekel (1994)
- COSMOLOGICAL APPLICATIONS OF GRAVITATIONAL
LENSING - R.D. Blandford and R. Narayan (1992)
- INTERACTIVE GRAVITATIONAL
LENSING BIBLIOGRAPHY
- GALAXY REDSHIFT
SURVEYS: 20 YEARS LATER - Luiz da Costa (1998)
- LARGE SCALES - LARGE NUMBERS - LARGE EFFORTS:
HISTORICAL ANNOTATIONS - W. C. Seitter (1987)
- REAL OR VIRTUAL
LARGE-SCALE STRUCTURE? - August E. Evrard (1999)
**Abstract.**Modeling the development of structure in the universe on galactic and larger scales is the challenge that drives the field of computational cosmology. Here, photorealism is used as a simple, yet expert, means of assessing the degree to which virtual worlds succeed in replicating our own. -
MAPPING THE UNIVERSE IN THREE DIMENSIONS - Martha P. Haynes (1996)
**Abstract.**The determination of the three-dimensional layout of galaxies is critical to our understanding of the evolution of galaxies and the structures in which they lie, to our determination of the fundamental parameters of cosmology, and to our understanding of both the past and future histories of the universe at large. The mapping of the large scale structure in the universe via the determination of galaxy red shifts (Doppler shifts) is a rapidly growing industry thanks to technological developments in detectors and spectrometers at radio and optical wavelengths. First-order application of the red shift-distance relation (Hubble's law) allows the analysis of the large-scale distribution of galaxies on scales of hundreds of megaparsecs. Locally, the large-scale structure is very complex but the overall topology is not yet clear. Comparison of the observed red shifts with ones expected on the basis of other distance estimates allows mapping of the gravitational field and the underlying total density distribution. The next decade holds great promise for our understanding of the character of large-scale structure and its origin. - MEASURING
THE TOPOLOGY OF THE UNIVERSE - Neil J. Cornish, David N. Spergel,
and Glenn D. Starkman (1998)
**Abstract.**Observations of microwave background fluctuations can yield information not only about the geometry of the universe but potentially about the topology of the universe. If the universe is negatively curved, then the characteristic scale for the topology of the universe is the curvature radius. Thus, if we are seeing the effects of the geometry of the universe, we can hope to soon see signatures of the topology of the universe. The cleanest signature of the topology of the universe is written on the microwave sky: There should be thousands of pairs of matched circles. These circles can be used to determine the precise topology and volume of the universe. Because we see hundreds of slices through the fundamental domain of the universe, we can use the microwave observations to reconstruct the initial conditions of the entire universe on the scale of a few megaparsecs. - THE
PAST AND THE FUTURE FATE OF THE UNIVERSE AND THE FORMATION OF
STRUCTURE IN IT - Hans-Walter Rix (1999)
**Abstract.**The history and the ultimate future fate of the universe as a whole depend on how much the expansion of the universe is decelerated by its own mass. In particular, whether the expansion of the universe will ever come to a halt can be determined from the past expansion. However, the mass density in the universe does not only govern the expansion history and the curvature of space, but in parallel also regulates the growth of hierarchical structure, including the collapse of material into the dense, virialized regions that we identify with galaxies. Hence, the formation of galaxies and their clustered distribution in space depend not only on the detailed physics of how stars are formed but also on the overall structure of the universe. Recent observational efforts, fueled by new large, ground-based telescopes and the Hubble Space Telescope, combined with theoretical progress, have brought us to the verge of determining the expansion history of the universe and space curvature from direct observation and to linking this to the formation history of galaxies. - AFTERGLOWS
FROM THE LARGEST EXPLOSIONS IN THE UNIVERSE - Dieter H. Hartmann (1999)
**Abstract.**The distinction of "largest explosions in the universe" has been bestowed on cosmic gamma-ray bursts. Their afterglows are brighter than supernovae and therefore are called hypernovae. Photometry and spectroscopy of these afterglows have provided major breakthroughs in our understanding of this mysterious phenomenon. - FORMATION OF STRUCTURE IN THE UNIVERSE -
Joel R. Primack (1999)
- SEVEN PARADIGMS IN STRUCTURE FORMATION - Joseph Silk (1999)

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