%0 Generic %1 eberhardt2022testing %A Eberhardt, Andrew %A Zamora, Alvaro %A Kopp, Michael %A Abel, Tom %D 2022 %K tifr %T Testing the mean field theory of scalar field dark matter %U http://arxiv.org/abs/2210.05842 %X Scalar field dark matter offers an interesting alternative to the traditional WIMP dark matter picture. Astrophysical and cosmological simulations are useful to constraining the mass of the dark matter particle in this model. This is particularly true at low mass where the wavelike nature of the dark matter particle manifests on astrophysical scales. These simulations typical use a classical field approximation. In this work, we look at extending these simulations to include quantum corrections. We look into both the ways in which large corrections impact the predictions of scalar field dark matter, and the timescales on which these corrections grow large. Corrections tend to lessen density fluctuations and increase the effect of "quantum pressure". During collapse, these corrections grow exponentially, quantum corrections would become important in about ~30 dynamical times. This implies that the predictions of classical field simulations may differ from those with quantum corrections for systems with short dynamical times.

@misc{eberhardt2022testing, abstract = {Scalar field dark matter offers an interesting alternative to the traditional WIMP dark matter picture. Astrophysical and cosmological simulations are useful to constraining the mass of the dark matter particle in this model. This is particularly true at low mass where the wavelike nature of the dark matter particle manifests on astrophysical scales. These simulations typical use a classical field approximation. In this work, we look at extending these simulations to include quantum corrections. We look into both the ways in which large corrections impact the predictions of scalar field dark matter, and the timescales on which these corrections grow large. Corrections tend to lessen density fluctuations and increase the effect of "quantum pressure". During collapse, these corrections grow exponentially, quantum corrections would become important in about ~30 dynamical times. This implies that the predictions of classical field simulations may differ from those with quantum corrections for systems with short dynamical times.}, added-at = {2022-10-13T08:18:13.000+0200}, author = {Eberhardt, Andrew and Zamora, Alvaro and Kopp, Michael and Abel, Tom}, biburl = {https://www.bibsonomy.org/bibtex/279a0bd2110ffd74555375ace764ebfba/citekhatri}, description = {Testing the mean field theory of scalar field dark matter}, interhash = {8de50a2ea44bf80d32d28b95f36b2584}, intrahash = {79a0bd2110ffd74555375ace764ebfba}, keywords = {tifr}, note = {cite arxiv:2210.05842Comment: IDM conference proceedings}, timestamp = {2022-10-13T08:18:13.000+0200}, title = {Testing the mean field theory of scalar field dark matter}, url = {http://arxiv.org/abs/2210.05842}, year = 2022 }