Dark energy : theories, developments and implications /
Clasificación: | Libro Electrónico |
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Otros Autores: | , |
Formato: | Electrónico eBook |
Idioma: | Inglés |
Publicado: |
New York :
Nova Science Publishers,
c2010.
|
Colección: | Space science, exploration and policies series.
|
Temas: | |
Acceso en línea: | Texto completo |
Tabla de Contenidos:
- Intro
- DARK ENERGY: THEORIES, DEVELOPMENTS AND IMPLICATIONS
- DARK ENERGY: THEORIES, DEVELOPMENTS AND IMPLICATIONS
- CONTENTS
- PREFACE
- Chapter 1DARK ENERGY: THE NATURE AND FEASIBILITYOF LABORATORY REGISTRATION USINGSQUID-MAGNETOSTRICTOR SYSTEM
- Abstract
- 1. Introduction: Physical Prerequisites to the Appearance of DarkEnergy Concept
- 2. SQUID/Magnetostrictor System as a Sensor of SuperweakPressure Variations
- 3. Physical Bases of Magnetostriction and Criteria of the OptimumTrial-body Choice in the SQUID/Magnetostrictor System
- References
- Chapter2AREVIEWONDARKENERGYOBJECTS
- Abstract
- 1. Introduction
- 2. GravastarsCanExistbutTheyDoNotExcludetheExistenceofBlackHoles
- 3. TheConnectionbetweenAccelerationoftheUniverseandStar-BlackHoleFormation
- 4. Conclusion
- References
- Chapter3THEDARKENERGYSCALEINSUPERCONDUCTORS:INNOVATIVETHEORETICALANDEXPERIMENTALCONCEPTS
- Abstract
- 1. Introduction
- 2. InverseCosmologicalConstantProblemandtheUncertaintyPrinciple
- 3. ThePlanck-EinsteinScale
- 4. ScaleTransformationinSuperconductors
- 4.1. CutoffforVacuumFluctuationsinSuperconductors
- 4.2. FormationofTaoBalls
- 4.3. FundamentalSpace-TimeUncertaintyinaRadioactiveSuperconductor
- 4.4. UncertaintyPrincipleandNon-classicalInertiainSuperconductors
- 5. GravitationalSurfaceTensionofTaoBalls
- 6. FurtherExperimentalSuggestions
- 7. Conclusion
- Acknowledgement
- References
- Chapter4CROSSINGTHEPHANTOMDIVIDE
- Abstract
- 1. TheUniverseisAccelerating
- 2. ADarkEnergywithCrossingâ#x88;#x92;1EOSisSlightlyFavoredbyObservations
- 2.1. TheProblemsof CDM
- 2.2. Crossingâ#x88;#x92;1
- 3. ThreeRoadstoCrossthePhantomDivide
- 3.1.2-FieldModel
- 3.2. InteractingModel
- 3.3. ModelinFrameofModifiedGravity
- 4. Summary
- References
- Chapter5QUANTUMYANG-MILLSCONDENSATEDARKENERGYMODELS
- Abstract
- 1. Introduction
- 2. PhysicalMotivation
- 3. Yang-MillsFieldModel.
- 4. YMCasDarkEnergy
- 4.1. FreeYMCModels
- 4.2. CoupledYMCModels
- 4.2.1. Qâ#x88;#x9D;HÏ#x81;y
- 4.2.2. Qâ#x88;#x9D;HÏ#x81;m
- 4.2.3. Qâ#x88;#x9D;H(Ï#x81;y+Ï#x81;m)
- 5. StatefinderandOmDiagnosisintheYMCModels
- 6. Conclusion
- References
- Chapter6CONSTRAINTSONDARKENERGYANDDARKMATTERFROMSUPERNOVAEANDGAMMARAYBURSTDATA
- Abstract
- 1. Introduction
- 2. ModelRegimes
- 3. ModelApplication
- 4. Results
- 4.1. LuminosityDistanceModulivs. RedshiftData
- 4.2. Distancevs. FrequencyDeclineData
- 4.3. TheHubbleConstantfromSNeIaandGRBData
- 5. Conclusion
- References
- Chapter7QUANTUMMECHANICALAPPROACHTOOUREXPANDINGUNIVERSEWITHDARKENERGY:SOLUBLESECTOROFQUANTUMGRAVITY
- Abstract
- 1. Introduction
- 2. PresentUniverse:ExactlySolubleSectorofQuantumGravity
- 3. CosmologicalConstant astheDarkEnergy
- 4. MathematicalFormulationwithout
- 5. Entropy, NumberofPhotonsandtheRatio(¯Nγ/Nn)
- 6. ARelationConnectingt, Tand
- 7. Conclusion
- References
- Chapter8DARKPRESSUREINANON-COMPACTANDNON-RICCIFLAT5DKALUZA-KLEINCOSMOLOGY
- Abstract
- 1. Introduction
- 2. Space-Time-MatterversusKaluza-KleinTheory
- 3. TheExtendedModel
- 4. Conclusion
- References
- Chapter9FALSIFYINGFIELD-BASEDDARKENERGYMODELS
- Abstract
- 1. Introduction
- 2. ObservationalEvidenceforQuintomDarkEnergyParadigm
- 2.1. BasicObservables
- 2.2. PerturbationTheoryandCurrentObservationalConstraints
- 2.2.1. AnalysisofPerturbationsinQuintomCosmology
- 2.2.2. SignaturesofPerturbationsinQuintomScenario
- 2.2.3. BreakingtheDegeneracybetweenQuintomandCosmologicalConstantSce-narios
- 3. ExponentialQuintom:PhaseSpaceAnalysis
- 3.1. FlatFRWSubcase
- 3.1.1. AnalysisatInfinity
- 3.2. ModelswithNegativeCurvature
- 3.2.1. Normalization, StateSpaceandDynamicalSystem
- 3.2.2. FormInvarianceunderCoordinateTrasformations
- 3.2.3. MonotonicFunctions
- 3.2.4. LocalAnalysisofCriticalPoints
- 3.2.5. Bifurcations
- 3.2.6. TypicalBehavior
- 3.3. ModelswithPositiveCurvature.
- 3.3.1. Normalization, StateSpaceandDynamicalSystem
- 3.3.2. InvarianceunderCoordinateTransformations
- 3.3.3. MonotonicFunctions
- 3.3.4. LocalAnalysisofCriticalPoints
- 3.3.5. Bifurcations
- 3.3.6. TypicalBehaviour
- 4. ObservationalEvidenceforQuinstantDarkEnergyParadigm
- 4.1. TheModel
- 4.2. MatchingwiththeData
- 4.2.1. TheMethodandtheData
- 4.2.2. Results
- 5. ExponentialQuinstant:PhaseSpaceAnalysis
- 5.1. FlatFRWCase
- 5.1.1. Normalization, StateSpace, andDynamicalSystem
- 5.1.2. FormInvarianceunderCoordinateTransformations
- 5.1.3. MonotonicFunctions
- 5.1.4. LocalAnalysisofCriticalPoints
- 5.1.5. Bifurcations
- 5.1.6. TypicalBehavior
- 5.2. QuinstantCosmologywithNegativeCurvature
- 5.2.1. Normalization, StateSpace, andDynamicalSystem
- 5.2.2. FormInvarianceunderCoordinateTransformations
- 5.2.3. MonotonicFunctions
- 5.2.4. LocalAnalysisofCriticalPoints
- 5.2.5. Bifurcations
- 5.2.6. TypicalBehavior
- 5.3. QuinstantCosmologywithPositiveCurvature
- 5.3.1. Normalization, StateSpace, andDynamicalSystem
- 5.3.2. FormInvarianceunderCoordinateTransformations
- 5.3.3. MonotonicFunctions
- 5.3.4. LocalAnalysisofCriticalPoints
- 5.3.5. Bifurcations
- 5.3.6. TypicalBehavior
- 6. ObservationalTestandDynamicalSystems:TheInterplay
- References
- Chapter10ONACCRETIONOFDARKENERGYONTOBLACK-ANDWORM-HOLES
- Abstract
- 1. Introduction
- 2. BriefReviewofSomeCandidatestoCosmicAcceleration
- 2.1. QuintessencewithaConstantEquationofStateParameter
- 2.2. PhantomQuintessencewithaConstantEquationofStateParameter
- 2.3. PhantomGeneralizedChaplyginGas
- 3. DarkEnergyAccretionontoBlackHoles
- 3.1. ApplicationtoaQuintessenceModel
- 3.2. ApplicationtoaPhantomQuintessenceModel
- 3.3. ApplicationtoaGeneralizedChaplyginModel
- 3.4. ConsiderationtoOtherBlackHoles
- 4. DarkEnergyAccretionontoWormholes
- 4.1. ApplicationtoaQuintessenceModel
- 4.2. ApplicationtoaPhantomQuintessenceModel.
- 4.3. ApplicationtoaGeneralizedChaplyginGasModel
- 5. DebateandNewLinesofResearch
- 6. Conclusion
- Acknowledgments
- References
- Chapter11ANALYTICAPPROACHESTOTHESTRUCTUREFORMATIONINTHEACCELERATINGUNIVERSE
- Abstract
- 1. Introduction
- 2. BasicEquations
- 3. EulerianPerturbations
- 3.1. LinearPerturbations
- 3.2. Non-linearPerturbations
- 4. LagrangianPerturbationsI-Basic
- 4.1. LagrangianDescription
- 4.2. LinearPerturbations(Zel'dovichApproximation)
- 4.3. Non-linearPerturbations
- 4.4. TransverseMode
- 5. LagrangianPerturbationsII-Advanced
- 5.1. Overview
- 5.2. ModifiedMethods
- 5.2.1. AdhesionApproximation
- 5.2.2. TruncatedZel'dovichApproximation
- 5.3. Improvements
- 5.3.1. PadÂþe, ShanksApproximation
- 5.3.2. LocalApproximation
- 5.4. RenormalizationGroupAppoarches
- 5.5. WaveMechanicalApproach
- 5.6. Non-dustModel, Multi-componentModel
- 6. Applications
- 6.1. Non-gaussianity
- 6.2. BaryonAcousticOscillations
- 6.3. InitialConditionProblemforN-bodySimulations
- 7. Summary
- Acknowledgments
- A. BeyondShell-Crossing-One-DimensionalSheetModel
- B. DerivationoftheBasicEquationsfromVlasovEquation
- C. QuantitiesUsedinThisPaper
- References
- Chapter12SUPERNOVAEANDTHEDARKSECTOROFTHEUNIVERSE
- Abstract
- 1. Introduction
- 2. FromType-IaSupernovaetotheEvolutionoftheUniverse
- 2.1. StandardizedCandles
- 2.2. SystematicUncertainties
- 2.3. TheRedshift-LuminosityDistanceRelation
- 2.4. TheStandardCosmologicalModel
- 3. ObservationsofDarkEnergybySupernovae
- 3.1. AcceleratedExpansionoftheUniverse:FirstEvidence
- 3.2. EnergyBudgetoftheCosmos:Today'sPicture
- 4.ComplementaryConstraintsbyOtherCosmologicalProbes
- 4.1. CMBAnisotropyMeasurements
- 4.2. BaryonAcousticOscillations
- 4.3. Large-ScaleStructure
- 4.4. OtherAstrophysicalSources
- 5. SurveyofTheoreticalInterpretationsofDarkEnergy
- 6. FutureofSupernovaCosmology
- 6.1. TheSNAPSatellite.
- 6.2. OtherFutureMissions
- 6.3. TypeIISupernovae
- 7. Conclusion
- References
- INDEX
- Blank Page.