Towards an N-body Model for the Globular Cluster M4
arXiv:1409.5597 · doi:10.1093/mnras/stu1976
Abstract
This paper describes an N-body model for the dynamical evolution of the nearby globular cluster M4. The initial conditions, with N = 484710 particles, were generated from a published study of this cluster with a Monte Carlo code. With the Monte Carlo code, these initial conditions led, after 12 Gyr of dynamical and stellar evolution, to a model which resembles M4 in terms of its surface brightness and velocity dispersion profiles, and its local luminosity function. Though the N-body model reported here is marred by some errors, its evolution can be compared with that of the published Monte Carlo model, with a result from the synthetic evolution code EMACSS, and with M4 itself.
arXiv comment10 pages, 12 figures; MNRAS, in press
References in corpus (24)
- Evolution of binary stars and the effect of tides on binary populations
- Comprehensive analytic formulae for stellar evolution as a function of mass and metallicity
- Resolved Massive Star Clusters in the Milky Way and its Satellites: Brightness Profiles and a Catalogue of Fundamental Parameters
- The ACS Survey of Galactic Globular Clusters. XII. Photometric Binaries along the Main-Sequence
- The Dynamical Properties of Stellar Systems in the Galactic Disc
- Accelerating NBODY6 with Graphics Processing Units
- Dynamical evolution of black hole sub-systems in idealised star clusters
- Black holes and core expansion in massive star clusters
- Monte-Carlo Simulations of Globular Cluster Evolution - I. Method and Test Calculations
- MOCCA Code for Star Cluster Simulations - II. Comparison with N-body Simulations
- Monte Carlo Simulations of Globular Cluster Evolution. IV. Direct Integration of Strong Interactions
- Core Formation by a Population of Massive Remnants
- Multiple stellar-mass black holes in globular clusters: theoretical confirmation
- The Lower Main Sequence and Mass Function of the Globular Cluster Messier 4
- Intermediate Mass Black Hole Induced Quenching of Mass Segregation in Star Clusters
- Monte Carlo Simulations of Star Clusters - VII. The globular cluster 47 Tuc
- Direct N-body simulations of globular clusters: (I) Palomar 14
- Monte Carlo Simulations of Star Clusters - V. The globular cluster M4
- Monte Carlo Simulations of Star Clusters - VI. The globular cluster NGC 6397
- A prescription and fast code for the long-term evolution of star clusters - III. Unequal masses and stellar evolution
- Direct -body simulations of globular clusters - II. Palomar 4
- MOCCA code for star cluster simulations - III. Stellar-mass black holes in the globular cluster M22
- 1Gyr in the Life of the Globular Cluster NGC 6397
- The M4 Core Project with HST --- I. Overview and First-Epoch
Cited by in corpus (36)
- A catalogue of masses, structural parameters and velocity dispersion profiles of 112 Milky Way globular clusters
- MOCCA-SURVEY Database I: Coalescing Binary Black Holes Originating From Globular Clusters
- The DRAGON simulations: globular cluster evolution with a million stars
- MOCCA Code for Star Cluster Simulations - IV. A new Scenario for Intermediate Mass Black Hole Formation in Globular Clusters
- NBODY6++GPU: Ready for the gravitational million-body problem
- The Role of the Kozai-Lidov Mechanism in Black Hole Binary Mergers in Galactic Centers
- Modeling Dense Star Clusters in the Milky Way and Beyond with the Cluster Monte Carlo Code
- A stellar-mass black hole population in the globular cluster NGC 6101?
- Investigating mass segregation process in globular clusters with Blue Straggler Stars: the impact of dark remnants
- Hubble Space Telescope Proper Motion (HSTPROMO) Catalogs of Galactic Globular Clusters. V. The rapid rotation of 47 Tuc traced and modeled in three dimensions
- Star Clusters in Evolving Galaxies
- Formation of Second Generation Stars in Globular Clusters
- The Global Mass Functions of 35 Galactic globular clusters: II. Clues on the Initial Mass Function and Black Hole Retention Fraction
- The properties of energetically unbound stars in stellar clusters
- The Hubble Space Telescope UV Legacy Survey of Galactic Globular Clusters. X. The radial distribution of stellar populations in NGC 2808
- Mass Evaporation Rate of Globular Clusters in a Strong Tidal Field
- Great Balls of FIRE II: The evolution and destruction of star clusters across cosmic time in a Milky Way-mass galaxy
- A dynamical gravitational wave source in a dense cluster
- Mass modelling globular clusters in the Gaia era: a method comparison using mock data from an -body simulation of M4
- Spherical models of star clusters with potential escapers
- Evolution of star cluster systems in isolated galaxies: first results from direct -body simulations
- MOCCA-SURVEY Database I: Is NGC 6535 a Dark Star Cluster Harboring an IMBH?
- A flexible method to evolve collisional systems and their tidal debris in external potentials
- Revisit the rate of tidal disruption events: the role of the partial tidal disruption event
- Testing lowered isothermal models with direct N-body simulations of globular clusters - II: Multimass models
- A Monte Carlo study of early gas expulsion and evolution of star clusters: new simulations with the MOCCA code in the AMUSE framework
- The WAGGS project -- III. Discrepant mass-to-light ratios of Galactic globular clusters at high metallicity
- A New Hybrid Technique for Modeling Dense Star Clusters
- Testing multi-mass dynamical models of star clusters with real data: mass segregation in three Galactic globular clusters
- The M4 Core Project with HST - IV. Internal Kinematics from Accurate Radial Velocities of 2771 Cluster Members
- Evolution of the Mass and Luminosity Functions of Globular Star Clusters
- Exploring the origin of stars on bound and unbound orbits causing tidal disruption events
- Diffusion and mixing in globular clusters
- Globular Clusters in the Galactic Center Region: expected behavior in the infalling and merger scenario
- Introducing a new multi-particle collision method for the evolution of dense stellar systems II. Core collapse
- Predicting Images for the Dynamics Of stellar Clusters (π-DOC): a deep learning framework to predict mass, distance and age of globular clusters