Impact of gas based seeding on supermassive black hole populations at
arXiv:2105.08055 · doi:10.1093/mnras/stab2204
Abstract
Deciphering the formation of supermassive black holes~(SMBHs) is a key science goal for upcoming observational facilities. In most theoretical channels proposed so far, the seed formation depends crucially on local gas conditions. We systematically characterize the impact of a range of gas based black hole seeding prescriptions on SMBH populations using cosmological simulations. Seeds of mass are placed in halos that exceed critical thresholds for star-forming, metal-poor gas mass and halo mass (defined as and , respectively, in units of ). We quantify the impact of these parameters on the properties of SMBHs. Lower seed masses produce much higher BH merger rates (by factors of and at and , respectively). For fixed seed mass, we find that has the strongest impact on the BH population at high redshift (, where a factor of 10 increase in suppresses merger rates by ). At lower redshift (), we find that has a larger impact on the BH population. Increasing from suppresses the merger rates by factors of at . This suggests that the seeding criteria explored here could leave distinct imprints on the redshift distribution of LISA merger rates. In contrast, AGN luminosity functions are much less sensitive to seeding criteria, varying by factors within the seed parameters we have explored. Such variations will be challenging to probe even with future sensitive instruments such as Lynx or JWST. Overall, our systematic parameter study provides a useful benchmark for development of seed models for large-volume cosmological simulations.
25 pages, 23 figures
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