Monte Carlo Simulation of Comptonization in Inhomogeneous Media
arXiv:physics/9709023 · doi:10.1063/1.168615
Abstract
Comptonization is the process in which photon spectrum changes due to multiple Compton scatterings in the electronic plasma. It plays an important role in the spectral formation of astrophysical X-ray and gamma-ray sources. There are several intrinsic limitations for the analytical method in dealing with the Comptonization problem and Monte Carlo simulation is one of the few alternatives. We describe an efficient Monte Carlo method that can solve the Comptonization problem in a fully relativistic way. We expanded the method so that it is capable of simulating Comptonization in the media where electron density and temperature varies discontinuously from one region to the other and in the isothermal media where density varies continuously along photon paths. The algorithms are presented in detail to facilitate computer code implementation. We also present a few examples of its application to the astrophysical research.
12 pages, 4 figures, Postscript file, in press ("Computers in Physics", Vol. 11, No. 6)
Cited by in corpus (11)
- grmonty: a Monte Carlo Code for Relativistic Radiative Transport
- RXTE Observation of Cygnus X--1: III. Implications for Compton Corona and ADAF Models
- X-ray radiative transfer in full 3D with SKIRT
- Iron K Lines from Gamma Ray Bursts
- Studying the Properties of Accretion Disks and Coronae in Black Hole X-ray Binaries with Monte-Carlo Simulations
- Short-Term Variability of X-rays from Accreting Neutron Star Vela X-1: II. Monte-Carlo Modeling
- X-ray Polarization Signatures of Compton Scattering in Magnetic Cataclysmic Variables
- Influences of magnetic coupling process on the spectrum of a disk covered by the corona
- A New Fast Monte Carlo Code for Solving Radiative Transfer Equations based on Neumann Solution
- An Integrated Model for the Production of X-Ray Time Lags and Quiescent Spectra from Homogeneous and Inhomogeneous Black Hole Accretion Coronae
- A Disc-Corona Model for a Rotating Black Hole