The Birth of Binary Direct-Collapse Black Holes
arXiv:2002.00983 · doi:10.3847/2041-8213/ab7c61
Abstract
Supermassive primordial stars forming during catastrophic baryon collapse in atomically-cooling halos at 15 - 20 may be the origin of the first quasars in the universe. However, no simulation to date has followed the evolution of these halos at resolutions that are high enough or for times that are long enough to determine if collapse actually produces SMSs. Here we report new cosmological simulations of baryon collapse in atomically-cooled halos for times that are long enough for SMSs to form and die as direct-collapse black holes (DCBHs). We find that the high infall rates required to build up such stars do persist until the end of their lives and could fuel the rapid growth of their BHs thereafter. Our simulations also demonstrate that binary and even small multiples of SMSs can form in low-spin and high-spin halos, respectively. This discovery raises the exciting prospect of detecting gravitational waves from DCBH mergers with LISA and tidal disruption events in the near infrared with the {\em James Webb Space Telescope} and ground-based telescopes in the coming decade.
Published in ApJL, https://iopscience.iop.org/article/10.3847/2041-8213/ab7c61
References in corpus (15)
- A luminous quasar at a redshift of z = 7.085
- Accretion onto the First Stellar Mass Black Holes
- Resolving the Formation of Protogalaxies. II. Central Gravitational Collapse
- The aftermath of the first stars: massive black holes
- The Evolution of Supermassive Population III Stars
- The critical radiation intensity for direct collapse black hole formation: dependence on the radiation spectral shape
- Supersonic Gas Streams Enhance the Formation of Massive Black Holes in the Early Universe
- Formation of massive protostars in atomic cooling haloes
- The Final Fates of Accreting Supermassive Stars
- The formation of compact massive self-gravitating discs in metal-free haloes with virial temperatures of ~ 13000-30000 K
- How realistic UV spectra and X-rays suppress the abundance of direct collapse black holes
- The formation of direct collapse black holes under the influence of streaming velocities
- Radiation hydrodynamics simulations of the formation of direct-collapse supermassive stellar systems
- On the Rotation of Supermassive Stars
- Radiative effects during the assembly of direct collapse black holes
Cited by in corpus (25)
- The Birth Mass Function of Pop III Stars
- Gravitational waves from Population III binary black holes formed by dynamical capture
- MaNGA AGN dwarf galaxies (MAD) -- I. A new sample of AGN in dwarf galaxies with spatially resolved spectroscopy
- FOREVER22: galaxy formation in protocluster regions
- Formation of supermassive black hole seeds in nuclear star clusters via gas accretion and runaway collisions
- Origin of supermassive black holes in massive metal-poor protoclusters
- Modeling Supermassive Primordial Stars with MESA
- Radiation Hydrodynamical Simulations of the Birth of Intermediate-Mass Black Holes in the First Galaxies
- On the Evolution of Supermassive Primordial Stars in Cosmological Flows
- The Collapse of Atomically-Cooled Primordial Haloes. I. High Lyman-Werner Backgrounds
- Conditions for detecting lensed Population III galaxies in blind surveys with the James Webb Space Telescope, the Roman Space Telescope and Euclid
- Formation of massive stars under protostellar radiation feedback: Very metal-poor stars
- Finding Direct-Collapse Black Holes at Birth
- Effect of mass loss due to stellar winds on the formation of supermassive black hole seeds in dense nuclear star clusters
- Inception of a first quasar at cosmic dawn
- Growth of Massive Disk and Early Disk Fragmentation in the Primordial Star Formation
- Role of magnetic fields in the formation of direct collapse black holes
- The Evolution of Population III and Extremely Metal-Poor Binary Stars
- Disk fragmentation and intermittent accretion onto supermassive stars
- Connecting the Dots: UV-Bright Companions of Little Red Dots as Lyman-Werner Sources Enabling Direct Collapse Black Hole Formation
- Identification of Intermediate-mass Black Hole Candidates Among a Sample of Sd Galaxies
- Detection of Tidal Disruption Events around Direct Collapse Black Holes at High Redshifts with the James Webb Space Telescope
- Probing supermassive stars and massive black hole seeds through gravitational wave inspirals
- Signatures of Exploding Supermassive PopIII Stars at High Redshift in JWST, EUCLID and Roman Space Telescope
- Finding lensed direct-collapse black holes and supermassive primordial stars