Dark matter capture in celestial objects: Improved treatment of multiple scattering and updated constraints from white dwarfs
arXiv:1906.04204 · doi:10.1088/1475-7516/2019/08/018
Abstract
We revisit dark matter (DM) capture in celestial objects, including the impact of multiple scattering, and obtain updated constraints on the DM-proton cross section using observations of white dwarfs. Considering a general form for the energy loss distribution in each scattering, we derive an exact formula for the capture probability through multiple scatterings. We estimate the maximum number of scatterings that take place, in contrast to the number to bring a dark matter particle to rest. We employ these results to compute a "dark" luminosity , arising solely from the thermalized annihilation products of the captured dark matter. Demanding that not exceed the luminosity of the white dwarfs in the M4 globular cluster, we set a bound on the DM-proton cross section: , almost independent of the dark matter mass between 100 GeV and 1 PeV and mildly weakening beyond. This is a stronger constraint than those obtained by direct detection experiments in both large mass and small mass regimes. For dark matter lighter than 350 MeV, which is beyond the sensitivity of present direct detection experiments, this is the strongest available constraint.
v3: Note added (Sec.V) clarifying the definition of optical depth for . v2: 25 pages, 7 figures, and 1 appendix. New references added, minor typos fixed
Cited by in corpus (63)
- Strong New Limits on Light Dark Matter from Neutrino Experiments
- Improved Treatment of Dark Matter Capture in Neutron Stars
- Low Mass Black Holes from Dark Core Collapse
- Exoplanets as Sub-GeV Dark Matter Detectors
- Observing the thermalization of dark matter in neutron stars
- Dark matter capture in celestial objects: light mediators, self-interactions, and complementarity with direct detection
- Dark Kinetic Heating of Neutron Stars from Contact Interactions with Relativistic Targets
- Celestial-Body Focused Dark Matter Annihilation Throughout the Galaxy
- Improved Treatment of Dark Matter Capture in Neutron Stars II: Leptonic Targets
- Evaporation of dark matter from celestial bodies
- Improved Treatment of Dark Matter Capture in Neutron Stars III: Nucleon and Exotic Targets
- Can LIGO Detect Non-Annihilating Dark Matter?
- Dark Matter, Destroyer of Worlds: Neutrino, Thermal, and Existential Signatures from Black Holes in the Sun and Earth
- Improved Treatment of Dark Matter Capture in White Dwarfs
- Comment on "Multiscatter stellar capture of dark matter"
- Bounds on Long-lived Dark Matter Mediators from Neutron Stars
- Accelerating Composite Dark Matter Discovery with Nuclear Recoils and the Migdal Effect
- Tidal Love Numbers of Novel and Admixed Celestial Objects
- A little theory of everything, with heavy neutral leptons
- New Experimental Constraints in a New Landscape for Composite Dark Matter
- Neutrinos from captured dark matter annihilation in a galactic population of neutron stars
- White dwarfs as Physics laboratories: lights and shadows
- Exclusion limits on Dark Matter-Neutrino Scattering Cross-section
- Feeble DM-SM Interaction via New Scalar and Vector Mediators in Rotating Neutron Stars
- Nuclear and dark matter heating in massive white dwarf stars
- Jupiter missions as probes of dark matter
- Direct Detection of Atomic Dark Matter in White Dwarfs
- Constraining Dark Matter properties with the first generation of stars
- Evaporation Barrier for Dark Matter in Celestial Bodies
- Heating Neutron Stars with Inelastic Dark Matter and Relativistic Targets
- Milky Way White Dwarfs as Sub-GeV to Multi-TeV Dark Matter Detectors
- Dark Matter Candidates and Searches
- Beyond Hawking evaporation of black holes formed by dark matter in compact stars
- Impact of galactic distributions in celestial capture of dark matter
- Multicomponent multiscatter capture of Dark Matter
- Analysis on the black hole formations inside old neutron stars by isospin-violating dark matter with self-interaction
- Improved bounds on the bosonic dark matter with pulsars in the Milky Way
- Could compact stars in globular clusters constrain dark matter?
- Improved White Dwarves Constraints on Inelastic Dark Matter and Left-Right Symmetric Models
- Heavy Dark Matter in White Dwarfs: Multiple-Scattering Capture and Thermalization
- Dark Matter (H)eats Young Planets
- Near- and sub-solar-mass naked singularities and black holes from transmutation of white dwarfs
- Exploring dark sector parameters in light of neutron star temperatures
- Constraining dark matter interactions mediated by a light scalar with white dwarfs
- Analytic Approximations for the Velocity Suppression of Dark Matter Capture
- The Revival of : A Natural Solution for with a Sub-GeV Dark Matter
- Troubles mounting for multipolar dark matter
- Capture rate of weakly interacting massive particles (WIMPs) in binary star systems
- Multi-frequency test of dark matter annihilation into long-lived particles in Sirius
- Dark Dwarfs: Dark Matter-Powered Sub-Stellar Objects Awaiting Discovery at the Galactic Center
- Improved Treatment of Bosonic Dark Matter Dynamics in Neutron Stars: Consequences and Constraints
- Probing Superheavy Dark Matter with Exoplanets
- Detecting Bosonic Dark Matter with Neutron Stars
- Confronting the dark matter capture rate with a continuous gravitational wave probe of local neutron stars
- Bounds on ALP-Mediated Dark Matter Models from Celestial Objects
- Exploring the Null Results in the Direct Detection Experiments, and Neutrino Mass in an Extended Model Constrained through the Decays
- Prospects for the detection of Dark Matter with Long-lived Mediators in the Sun using the Southern Wide-field Gamma-ray Observatory
- Deep Inelastic Scattering in the Capture of Dark Matter by Neutron Stars
- Supermassive Dark Stars and their remnants as a possible solution to three recent cosmic dawn puzzles
- Heavy dark matter in rapidly evolving massive stars
- Revisiting constraints on asymmetric dark matter from collapse in white dwarf stars
- Mergers as a Probe of Particle Dark Matter
- Can local White Dwarfs constrain Dark Matter interactions?