The Halo Spin Transition as a Probe of Dark Energy
arXiv:2008.02121 · doi:10.3847/1538-4357/abb314
Abstract
We present a numerical evidence supporting the claim that the mass-dependent transitions of the halo spin orientations from the intermediate to the minor principal directions of the local tidal fields can in principle be a useful discriminator of dark energy models. We first define a spin transition zone as the mass range of the halos, , for which the intrinsic spin alignments with the minor tidal principal directions become as strong as that with the intermediate principal directions. Then, utilizing the halo samples from the DEUS simulations performed separately for the WMAP7 CDM, phantom DE and quintessence models, we investigate if and how the three different dark energy models differ in . It is shown that the differences in among the three dark energy models are significant enough to discriminate the models from one another and robust against the variations of the smoothing scale of the tidal field and redshift. Noting that a narrower spin transition zone is more powerful as a probe of dark energy, we also show that the spin transition zones become narrower at higher redshifts, in the filamentary environments and for the case that the tidal fields are smoothed on the smaller scales. Our result is consistent with the scenario that is mainly determined by how fast the nonlinear evolution of the tidal field proceeds, which in turn sensitively depends on the background cosmology.
accepted for publication in ApJ, 13 figures, 2 tables, minor revision
References in corpus (17)
- Wilkinson Microwave Anisotropy Probe (WMAP) Three Year Results: Implications for Cosmology
- Large Magellanic Cloud Cepheid Standards Provide a 1% Foundation for the Determination of the Hubble Constant and Stronger Evidence for Physics Beyond LambdaCDM
- Properties of Dark Matter Haloes in Clusters, Filaments, Sheets and Voids
- The spin and shape of dark matter haloes in the Millennium simulation of a LambdaCDM universe
- The Evolution of Dark Matter Halo Properties in Clusters, Filaments, Sheets and Voids
- Spin alignment of dark matter haloes in filaments and walls
- The Large-Scale Orientations of Disk Galaxies
- Angular momentum-Large-scale structure alignments in LCDM models and the SDSS
- Intrinsic alignment of simulated galaxies in the cosmic web: implications for weak lensing surveys
- The Cosmic Ballet II: Spin alignment of galaxies and haloes with large-scale filaments in the EAGLE simulation
- Cosmic web alignments with the shape, angular momentum and peculiar velocities of dark matter haloes
- Mergers drive spin swings along the cosmic web
- The SAMI Galaxy Survey: First detection of a transition in spin orientation with respect to cosmic filaments in the stellar kinematics of galaxies
- The build up of the correlation between halo spin and the large scale structure
- Alignment of galaxies relative to their local environment in SDSS-DR8
- Alignment between filaments and galaxy spins from the MaNGA integral-field survey
- Probing dark energy models with extreme pairwise velocities of galaxy clusters from the DEUS-FUR simulations
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- An Observed Transition of Galaxy Spins on the Void Surfaces
- Detection of the Mass-Dependent Dual-Type Transition of Galaxy Spins in IllustrisTNG Simulations
- Baryonic Effects on Lagrangian Clustering and Angular Momentum Reconstruction
- Cosmic filament spin -- II: filament spin and its impact on galaxy spin-filament alignment in a cosmological simulation
- Spin speed correlations and the evolution of galaxy-halo systems
- Reoriented Memory of Galaxy Spins for the Early Universe
- The Density Parity Model for the Evolution of the Subhalo Inner Spin Alignments with the Cosmic Web
- Dependence of the dynamical properties of light-cone simulation dark matter halos on their environment
- How the Galaxy Stellar Spins Acquire a Peculiar Tidal Connection?
- Galaxy Spin Alignment with Tidal Fields in the SDSS-IV MaNGA Survey
- A high-significance detection of primordial tidal torque imprints