Recent measurements of the K-band luminosity function now provide us with strong, reliable constraints on the fraction of baryons which have cooled. Globally, this fraction is only about 5 per cent, and there is no strong evidence that it is significantly higher in clusters. Without an effective subgrid feedback prescription, the cooled gas fraction in any numerical simulation exceeds these observational constraints, and increases with increasing resolution. This compromises any discussion of galaxy and cluster properties based on results of simulations which include cooling but do not implement an effective feedback mechanism
In the thermal dark matter (DM) paradigm, primordial interactions between DM and Standard Model part...
We use the hydrodynamic, cosmological EAGLE simulations to investigate how the hot gas in haloes con...
The thermodynamic structure of hot gas in galaxy clusters is sensitive to astrophysical processes an...
Chandra X-ray observations are analyzed for five galaxy clusters whose atmospheric cooling times, en...
We present results from a new set of 30 cosmological simulations of galaxy clusters, including the e...
We use a three-dimensional hydrodynamical code to simulate the effect of energy injection on cooling...
We present accurate mass and thermodynamic profiles for 57 galaxy clusters observed with the Chandra...
Semi-analytic galaxy formation models are widely used to gain insight into the astrophysics of galax...
The distribution of cold gas in dark matter haloes is driven by key processes in galaxy formation: g...
One of the key physical processes that helps prevent strong cooling flows in galaxy clusters is the ...
We implement a black hole spin evolution and jet feedback model into SWIFT, a smoothed particle hydr...
We compare the mass cooling rates and cumulative cooled-down masses predicted by several semi-analyt...
Flux limited X-ray surveys of galaxy clusters show that clusters come in two roughly equally propor-...
We have performed cosmological simulations in a ΛCDM cosmology with and without radiative cooling in...
Many processes within galaxy clusters, such as those believed to govern the onset of thermally unsta...
In the thermal dark matter (DM) paradigm, primordial interactions between DM and Standard Model part...
We use the hydrodynamic, cosmological EAGLE simulations to investigate how the hot gas in haloes con...
The thermodynamic structure of hot gas in galaxy clusters is sensitive to astrophysical processes an...
Chandra X-ray observations are analyzed for five galaxy clusters whose atmospheric cooling times, en...
We present results from a new set of 30 cosmological simulations of galaxy clusters, including the e...
We use a three-dimensional hydrodynamical code to simulate the effect of energy injection on cooling...
We present accurate mass and thermodynamic profiles for 57 galaxy clusters observed with the Chandra...
Semi-analytic galaxy formation models are widely used to gain insight into the astrophysics of galax...
The distribution of cold gas in dark matter haloes is driven by key processes in galaxy formation: g...
One of the key physical processes that helps prevent strong cooling flows in galaxy clusters is the ...
We implement a black hole spin evolution and jet feedback model into SWIFT, a smoothed particle hydr...
We compare the mass cooling rates and cumulative cooled-down masses predicted by several semi-analyt...
Flux limited X-ray surveys of galaxy clusters show that clusters come in two roughly equally propor-...
We have performed cosmological simulations in a ΛCDM cosmology with and without radiative cooling in...
Many processes within galaxy clusters, such as those believed to govern the onset of thermally unsta...
In the thermal dark matter (DM) paradigm, primordial interactions between DM and Standard Model part...
We use the hydrodynamic, cosmological EAGLE simulations to investigate how the hot gas in haloes con...
The thermodynamic structure of hot gas in galaxy clusters is sensitive to astrophysical processes an...