© 2019 The Author(s). We introduce the Stars and MUltiphase Gas in GaLaxiEs - SMUGGLE model, an explicit and comprehensive stellar feedback model for the moving-mesh code AREPO. This novel sub-resolution model resolves the multiphase gas structure of the interstellar medium and selfconsistently generates gaseous outflows. The model implements crucial aspects of stellar feedback including photoionization, radiation pressure, energy, and momentum injection from stellar winds and from supernovae. We explore this model in high-resolution isolated simulations of Milky Way like disc galaxies. Stellar feedback regulates star formation to the observed level and naturally captures the establishment of a Kennicutt-Schmidt relation. This result is ach...
We introduce an updated physical model to simulate the formation and evolution of galaxies in cosmol...
We investigate how the way galaxies acquire their gas across cosmic time in cos-mological hydrodynam...
none3siThis article has been accepted for publication in MNRAS ©: 2013 The Author(s) Published by Ox...
none5si©2019 The Author(s)Published by Oxford University Press on behalf of the Royal Astronomical S...
We introduce the Stars and MUltiphase Gas in GaLaxiEs – SMUGGLE model, an explicit and comprehensive...
We develop and implement numerical methods for including stellar feedback in galaxy-scale numerical ...
We present a new particle code for modelling the evolution of galaxies. The code is based on a multi...
We present a new particle code for modelling the evolution of galaxies. The code is based on a multi...
We present a new particle code for modelling the evolution of galaxies. The code is based on a mult...
We present a novel set of stellar feedback models, implemented in the moving-mesh code arepo, design...
This thesis is primarily concerned with understanding the process of galaxy formation via the simula...
We present a model for star formation and supernova feedback that describes the multiphase structure...
Context.Modelling the gaseous component of the interstellar medium (ISM) by Smoothed Particles Hydro...
6We investigate the impact of galactic outflow modelling on the formation and evolution of a disc ga...
This contribution discusses the challenges of implementing star formation and stellar feedback proce...
We introduce an updated physical model to simulate the formation and evolution of galaxies in cosmol...
We investigate how the way galaxies acquire their gas across cosmic time in cos-mological hydrodynam...
none3siThis article has been accepted for publication in MNRAS ©: 2013 The Author(s) Published by Ox...
none5si©2019 The Author(s)Published by Oxford University Press on behalf of the Royal Astronomical S...
We introduce the Stars and MUltiphase Gas in GaLaxiEs – SMUGGLE model, an explicit and comprehensive...
We develop and implement numerical methods for including stellar feedback in galaxy-scale numerical ...
We present a new particle code for modelling the evolution of galaxies. The code is based on a multi...
We present a new particle code for modelling the evolution of galaxies. The code is based on a multi...
We present a new particle code for modelling the evolution of galaxies. The code is based on a mult...
We present a novel set of stellar feedback models, implemented in the moving-mesh code arepo, design...
This thesis is primarily concerned with understanding the process of galaxy formation via the simula...
We present a model for star formation and supernova feedback that describes the multiphase structure...
Context.Modelling the gaseous component of the interstellar medium (ISM) by Smoothed Particles Hydro...
6We investigate the impact of galactic outflow modelling on the formation and evolution of a disc ga...
This contribution discusses the challenges of implementing star formation and stellar feedback proce...
We introduce an updated physical model to simulate the formation and evolution of galaxies in cosmol...
We investigate how the way galaxies acquire their gas across cosmic time in cos-mological hydrodynam...
none3siThis article has been accepted for publication in MNRAS ©: 2013 The Author(s) Published by Ox...