The manuscript body is a different paper (b → c semileptonic sum rules) and contains none of the claimed dark matter gamma-ray morphology analysis, so the abstract's prediction is unsupported.
The Hestia project: simulations of the Local Group
1 Pith paper cite this work. Polarity classification is still indexing.
abstract
We present the Hestia simulation suite: High-resolutions Environmental Simulations of The Immediate Area, a set of cosmological simulations of the Local Group. Initial conditions constrained by the observed peculiar velocity of nearby galaxies are employed to accurately simulate the local cosmography. Halo pairs that resemble the Local Group are found in low resolutions constrained, dark matter only simulations, and selected for higher resolution magneto hydrodynamic simulation using the Arepo code. Baryonic physics follows the Auriga model of galaxy formation. The simulations contain a high resolution region of 3-5 Mpc in radius from the Local Group midpoint embedded in the correct cosmographic landscape. Within this region a simulated Local Group consisting of a Milky Way and Andromeda like galaxy forms, whose description is in excellent agreement with observations. The simulated Local Group galaxies resemble the Milky Way and Andromeda in terms of their halo mass, mass ratio, stellar disc mass, morphology separation, relative velocity, rotation curves, bulge-disc morphology, satellite galaxy stellar mass function, satellite radial distribution and in some cases, the presence of a Magellanic cloud like object. Because these simulations properly model the Local Group in their cosmographic context, they provide a testing ground for questions where environment is thought to play an important role.
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Fermi-LAT Galactic Center Excess morphology of dark matter in simulations of the Milky Way galaxy
The manuscript body is a different paper (b → c semileptonic sum rules) and contains none of the claimed dark matter gamma-ray morphology analysis, so the abstract's prediction is unsupported.