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Superheavy Q-Balls and Cosmology

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Abstract We propose a model for the cosmological formation of superheavy Q-Balls in the mass range 10 -7 M ⊙ to 10 6 M ⊙ . The model is based on a hidden sector scalar potential motivated by broken scale invariance, for which analytic Q-ball solutions and numerical simulations of condensate fragmentation exist. We show that this potential can produce superheavy Q-balls during the radiation-dominated era. As an example, we show that it is possible to produce Q-balls of mass ∼ 10 6 M ⊙ and diameter ∼ 100 light years, with a number density ∼ 1 per galaxy. Such early-forming superheavy Q-balls could play a role in galaxy and supermassive black hole (SMBH) formation. We also show that it is possible to form smaller mass Q-balls with large numbers per galaxy volume, that could form SMBH by merging. Finally, we show that it is possible to produce asteroid mass Q-balls that could account for all of the dark matter whilst remaining consistent with observational limits on MACHOs.
Title: Superheavy Q-Balls and Cosmology
Description:
Abstract We propose a model for the cosmological formation of superheavy Q-Balls in the mass range 10 -7 M ⊙ to 10 6 M ⊙ .
The model is based on a hidden sector scalar potential motivated by broken scale invariance, for which analytic Q-ball solutions and numerical simulations of condensate fragmentation exist.
We show that this potential can produce superheavy Q-balls during the radiation-dominated era.
As an example, we show that it is possible to produce Q-balls of mass ∼ 10 6 M ⊙ and diameter ∼ 100 light years, with a number density ∼ 1 per galaxy.
Such early-forming superheavy Q-balls could play a role in galaxy and supermassive black hole (SMBH) formation.
We also show that it is possible to form smaller mass Q-balls with large numbers per galaxy volume, that could form SMBH by merging.
Finally, we show that it is possible to produce asteroid mass Q-balls that could account for all of the dark matter whilst remaining consistent with observational limits on MACHOs.

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