Adiabatic Invariants in Stellar Dynamics: I. Basic concepts
arXiv:astro-ph/9404015 · doi:10.1086/117161
Abstract
The adiabatic criterion, widely used in astronomical dynamics, is based on the harmonic oscillator. It asserts that the change in action under a slowly varying perturbation is exponentially small. Recent mathematical results precisely define the conditions for invariance show that this model does not apply in general. In particular, a slowly varying perturbation may cause significant evolution stellar dynamical systems even if its time scale is longer than any internal orbital time scale. This additional `heating' may have serious implications for the evolution of star clusters and dwarf galaxies which are subject to long-term environmental forces. The mathematical developments leading to these results are reviewed, and the conditions for applicability to and further implications for stellar systems are discussed. Companion papers present a computational method for a general time-dependent disturbance and detailed example.
uuencoded compressed PostScript, Preprint 94-1
Cited by in corpus (58)
- Destruction of the Galactic Globular Cluster System
- Galaxies in N-body simulations: overcoming the overmerging problem
- The Effects of Photoionization on Galaxy Formation - I: Model and Results at z=0
- The Metamorphosis of Tidally Stirred Dwarf Galaxies
- Disruption of Dark Matter Substructure: Fact or Fiction?
- The E-MOSAICS Project: simulating the formation and co-evolution of galaxies and their star cluster populations
- On the Life and Death of Satellite Haloes
- Modeling the formation and evolution of star cluster populations in galaxy simulations
- The E-MOSAICS project: tracing galaxy formation and assembly with the age-metallicity distribution of globular clusters
- Towards a Resolution of the Galactic Spin Crisis: Mergers, Feedback, and Spin Segregation
- On the Self-Consistent Response of Stellar Systems to Gravitational Shocks
- Tidal debris of dwarf spheroidals as a probe of structure formation models
- Can tides disrupt cold dark matter subhaloes?
- Evolution of globular cluster systems in elliptical galaxies. II. Power-law initial mass function
- The effect of spiral arm passages on the evolution of stellar clusters
- Evolution of globular cluster systems in elliptical galaxies. I. Log-normal initial mass function
- The asymptotic tidal remnants of cold dark matter subhalos
- Effect of the Milky Way on Magellanic Cloud structure
- Interpreting the Morphology of Diffuse Light Around Satellite Galaxies
- If it does not kill them, it makes them stronger: collisional evolution of star clusters with tidal shocks
- Star Clusters in Evolving Galaxies
- Adiabatic Invariants in Stellar Dynamics: III. Application to Globular Cluster Evolution
- The Global Kinematics of the Globular Cluster M15
- Modeling dark matter subhalos in a constrained galaxy: Global mass and boosted annihilation profiles
- Introducing EMP-Pathfinder: modelling the simultaneous formation and evolution of stellar clusters in their host galaxies
- The dynamics of satellite disruption in cold dark matter haloes
- On the Interpretation of the Globular Cluster Luminosity Function
- A prescription and fast code for the long-term evolution of star clusters - III. Unequal masses and stellar evolution
- Great Balls of FIRE II: The evolution and destruction of star clusters across cosmic time in a Milky Way-mass galaxy
- Morphological Evolution of Dwarf Galaxies in the Local Group
- Mass loss in tidally stripped systems; the energy-based truncation method
- Tidal Stripping in the Adiabatic Limit
- Tidal evolution of dark matter annihilation rates in subhalos
- A Comprehensive Perturbative Formalism for Phase-Mixing in Perturbed Disks. I. Phase spirals in an Infinite, Isothermal Slab
- Tidal Tracks and Artificial Disruption of Cold Dark Matter Halos
- A tight relation between the age distributions of stellar clusters and the properties of the interstellar medium in the host galaxy
- A systematic analysis of star cluster disruption by tidal shocks -- I. Controlled N-body simulations and a new theoretical model
- A new calibration method of sub-halo orbital evolution for semi-analytic models
- Stochastic tidal heating by random interactions with extended substructures
- Tidal evolution of cored and cuspy dark matter halos
- Effects of External Tidal Field on the Evolution of Multi-mass Star Clusters
- The fate of cannibalized fundamental-plane ellipticals
- A Comprehensive Perturbative Formalism for Phase Mixing in Perturbed Disks. II. Phase Spirals in an Inhomogeneous Disk Galaxy with a Non-responsive Dark Matter Halo
- A Fully General, Non-Perturbative Treatment of Impulsive Heating
- Tidal Effects on the Spatial Structure of the Local Group
- An Accurate Comprehensive Approach to Substructure: II. Stripped Subhaloes
- Classification of gamma-ray targets for velocity-dependent and subhalo-boosted dark-matter annihilation
- On the response of a star cluster to a tidal perturbation
- Initial sizes of star clusters: implications for cluster dissolution during galaxy evolution
- Modelling self-interacting dark matter substructures I: Calibration with N-body simulations of a Milky-Way-sized halo and its satellite
- A systematic analysis of star cluster disruption by tidal shocks -- II. Predicting star cluster dissolution rates from a time-series analysis of their tidal histories
- Impulsive mixing of stellar populations in dwarf spheroidal galaxies
- Statistics for dark matter subhalo searches in gamma rays from a kinematically constrained population model: Fermi-LAT-like telescopes
- On the Stability of Quasi-Equilibrium Self-Gravitating Configurations in a Tidal Field
- Collisionless relaxation from near equilibrium configurations: Linear theory and application to tidal stripping
- The Boosted Potential
- Analytical insight into dark matter subhalo boost factors for Sommerfeld-enhanced - and -wave -ray signals
- Evolution of star clusters on eccentric orbits: semi-analytical approach