Mechanical feedback from stellar winds with an application to galaxy formation at high redshift
arXiv:2201.07244 · doi:10.1093/mnras/stac785
Abstract
We compute different sets of stellar evolutionary tracks in order to quantify the energy, mass, and metals yielded by massive main-sequence and post-main-sequence winds. Our aim is to investigate the impact of binary systems and of a metallicity-dependent distribution of initial rotational velocities on the feedback by stellar winds. We find significant changes compared to the commonly used non-rotating, single-star scenario. The largest differences are noticeable at low metallicity, where the mechanical-energy budget is substantially increased. So as to establish the maximal (i.e. obtained by neglecting dissipation in the near circumstellar environment) influence of winds on the early stages of galaxy formation, we use our new feedback estimates to simulate the formation and evolution of a sub- galaxy at redshift 3 (hosted by a dark-matter halo with a mass of M) and compare the outcome with simulations in which only supernova (SN) feedback is considered. Accounting for the continuous energy injection by winds reduces the total stellar mass, the metal content, and the burstiness of the star-formation rate as well as of the outflowing gas mass. However, our numerical experiment suggests that the enhanced mechanical feedback from the winds of rotating and binary stars has a limited impact on the most relevant galactic properties compared to the non-rotating single-star scenario. Eventually, we look at the relative abundance between the metals entrained in winds and those ejected by SNe and find that it stays nearly constant within the simulated galaxy and its surrounding halo.
20 pages, 20 figures, updated to match the version published in MNRAS
References in corpus (49)
- Modules for Experiments in Stellar Astrophysics (MESA)
- Binary interaction dominates the evolution of massive stars
- Modules for Experiments in Stellar Astrophysics (MESA): Pulsating Variable Stars, Rotation, Convective Boundaries, and Energy Conservation
- The EAGLE simulations of galaxy formation: calibration of subgrid physics and model variations
- Physical Properties of Wolf-Rayet Stars
- Binary Population and Spectral Synthesis Version 2.1: construction, observational verification and new results
- Star Formation and Feedback in Smoothed Particle Hydrodynamic Simulations--I. Isolated Galaxies
- Mass loss from hot massive stars
- Forming Disk Galaxies in Lambda CDM Simulations
- The Effects of Stellar Rotation. II. A Comprehensive Set of Starburst99 Models
- Momentum Injection by Supernovae in the Interstellar Medium
- Escape fraction of ionizing photons during reionization: effects due to supernova feedback and runaway OB stars
- The role of stellar feedback in the formation of galaxies
- The galaxy stellar mass function at 3.5<z<7.5 in the CANDELS/UDS, GOODS-South, and HUDF fields
- On the onset of galactic winds in quiescent star forming galaxies
- Toward Complete Statistics of Massive Binary Stars: Penultimate Results from the Cygnus OB2 Radial Velocity Survey
- Before the first supernova: combined effects of HII regions and winds on molecular clouds
- A strong case for fast stellar rotation at very low metallicities
- On the interplay between star formation and feedback in galaxy formation simulations
- The VLT-FLAMES survey of massive stars: atmospheric parameters and rotational velocity distributions for B-type stars in the Magellanic Clouds
- The impact of companions on stellar evolution
- The VLT-FLAMES survey of massive stars: Mass loss and rotation of early-type stars in the SMC
- Modelling the supernova-driven ISM in different environments
- The VLT-FLAMES survey of massive stars: Wind properties and evolution of hot massive stars in the LMC
- The Tarantula Massive Binary Monitoring: I. Observational campaign and OB-type spectroscopic binaries
- MUFASA: Galaxy star formation, gas, and metal properties across cosmic time
- The VLT-FLAMES Survey of Massive Stars: Stellar parameters and rotational velocities in NGC3293, NGC4755 and NGC6611
- Mutual influence of supernovae and molecular clouds
- A Detailed Study of Feedback from a Massive Star
- The Evolution of Supernovae in Circumstellar Wind Bubbles II: Case of a Wolf-Rayet star
- Testing massive star evolution, star-formation history and feedback at low metallicity : Spectroscopic analysis of OB stars in the SMC Wing
- Rotational Velocities For B0-B3 Stars in 7 Young Clusters: Further Study of the Relationship between Rotation Speed and Density in Star-Forming Regions
- SILCC VI -- Multi-phase ISM structure, stellar clustering, and outflows with supernovae, stellar winds, ionising radiation and cosmic rays
- The GRIFFIN project -- Formation of star clusters with individual massive stars in a simulated dwarf galaxy starburst
- Gone With the Wind: Where is the Missing Stellar Wind Energy from Massive Star Clusters?
- Snap, Crackle, Pop: sub-grid supernova feedback in AMR simulations of disk galaxies
- Feedback in Clouds II: UV Photoionisation and the first supernova in a massive cloud
- The formation of low metallicity globular clusters in dwarf galaxy mergers
- A FUSE Survey of the Rotation Rates of Very Massive Stars in the Small and Large Magellanic Clouds
- Which feedback mechanisms dominate in the high-pressure environment of the Central Molecular Zone?
- A census of massive stars in NGC 346. Stellar parameters and rotational velocities
- Projected Rotational Velocities and Stellar Characterization of 350 B Stars in the Nearby Galactic Disk
- Supernova feedback and the energy deposition in molecular clouds
- Wind-envelope interaction as the origin of the slow cyclic brightness variations of luminous blue variables
- The roles of stellar feedback and galactic environment in star forming molecular clouds
- Mass and metallicity scaling relations of high redshift star-forming galaxies selected by GRBs
- Photoionising feedback in spiral arm molecular clouds
- First Investigation of the Combined Impact of Ionizing Radiation and Momentum Winds from a Massive Star on a Self-Gravitating Core
- Early-type objects in NGC6611 and Eagle Nebula