We show that dissipationless ΛCDM simulations predict that the majority of the most massive subhaloes of the Milky Way are too dense to host any of its bright satellites (LV> 10 5 L). These dark subhaloes have peak circular velocities at infall of Vinfall = 30−70 km s−1 and infall masses of [0.2−4]×1010M. Unless the Milky Way is a statistical anomaly, this implies that galaxy formation becomes effectively stochastic at these masses. This is in marked contrast to the well-established monotonic relation between galaxy luminosity and halo circular velocity (or halo mass) for more massive haloes. We show that at least two (and typically four) of these massive dark subhaloes are expected to produce a larger dark matter annihilation flux than ...
Aims: We test whether or not realistic analysis techniques of advanced hydrodynamical simulations ca...
We present a new analysis of the Aquarius simulations done in combination with a semi-analytic galax...
© 2019 us. © 2019 American Physical Society. Milky Way (MW) satellites reside within dark matter (DM...
We use the Aquarius simulations to show that the most massive subhalos in galaxy-mass dark matter ha...
Recent studies suggest that only three of the 12 brightest satellites of the Milky Way (MW) inhabit ...
We present a new analysis of the Aquarius simulations done in combination with a semi-analytic galax...
We compare the dynamical masses of dwarf galaxies in the Local Group (LG) to those of haloes in the ...
We explore the properties of Milky Way subhalos in self-interacting dark matter models for moderate ...
Among the most important goals in cosmology is detecting and quantifying small (Mhalo ≃ 106-9 M⊙) da...
We use simulations of MilkyWay-sized dark matter haloes from the Aquarius Project to investigate the...
We compare the dynamical masses of dwarf galaxies in the Local Group (LG) to those of haloes in the ...
Among the most important goals in cosmology is detecting and quantifying small (Mhalo ≃ 106-9 M⊙) da...
We present a new analysis of the Aquarius simulations done in combination with a semi-analytic galax...
N-body dark matter simulations of structure formation in the Λ cold dark matter (ΛCDM) model predict...
We use the distribution of maximum circular velocities, Vmax, of satellites in the Milky Way (MW) to...
Aims: We test whether or not realistic analysis techniques of advanced hydrodynamical simulations ca...
We present a new analysis of the Aquarius simulations done in combination with a semi-analytic galax...
© 2019 us. © 2019 American Physical Society. Milky Way (MW) satellites reside within dark matter (DM...
We use the Aquarius simulations to show that the most massive subhalos in galaxy-mass dark matter ha...
Recent studies suggest that only three of the 12 brightest satellites of the Milky Way (MW) inhabit ...
We present a new analysis of the Aquarius simulations done in combination with a semi-analytic galax...
We compare the dynamical masses of dwarf galaxies in the Local Group (LG) to those of haloes in the ...
We explore the properties of Milky Way subhalos in self-interacting dark matter models for moderate ...
Among the most important goals in cosmology is detecting and quantifying small (Mhalo ≃ 106-9 M⊙) da...
We use simulations of MilkyWay-sized dark matter haloes from the Aquarius Project to investigate the...
We compare the dynamical masses of dwarf galaxies in the Local Group (LG) to those of haloes in the ...
Among the most important goals in cosmology is detecting and quantifying small (Mhalo ≃ 106-9 M⊙) da...
We present a new analysis of the Aquarius simulations done in combination with a semi-analytic galax...
N-body dark matter simulations of structure formation in the Λ cold dark matter (ΛCDM) model predict...
We use the distribution of maximum circular velocities, Vmax, of satellites in the Milky Way (MW) to...
Aims: We test whether or not realistic analysis techniques of advanced hydrodynamical simulations ca...
We present a new analysis of the Aquarius simulations done in combination with a semi-analytic galax...
© 2019 us. © 2019 American Physical Society. Milky Way (MW) satellites reside within dark matter (DM...