Published January 1984 | Version v1
Report

Monte Carlo simulation for theoretical calculations of damage and sputtering processes

  • 1. Okayama Coll. of Science (Japan)

Description

The radiation damage accompanying ion irradiation and the various problems caused with it should be determined in principle by resolving Boltzmann's equations. However, in reality, those for a semi-infinite system cannot be generally resolved. Moreover, the effect of crystals, oblique incidence and so on make the situation more difficult. The analysis of the complicated phenomena of the collision in solids and the problems of radiation damage and sputtering accompanying them is possible in most cases only by computer simulation. At present, the methods of simulating the atomic collision phenomena in solids are roughly classified into molecular dynamics method and Monte Carlo method. In the molecular dynamics, Newton's equations are numerically calculated time-dependently as they are, and it has large merits that many body effect and nonlinear effect can be taken in consideration, but much computing time is required. The features and problems of the Monte Carlo simulation and nonlinear Monte Carlo simulation are described. The comparison of the Monte Carlo simulation codes calculating on the basis of two-body collision approximation, MARLOWE, TRIM and ACAT, was carried out through the calculation of the backscattering spectra of light ions. (Kako, I.)

Additional details

Publishing Information

Imprint Title
Report of workshop on computer simulation of atomic collision processes in solids
Imprint Pagination
110 p.
Journal Page Range
p. 82-95.
Report number
JAERI-M--83-226

Conference

Title
Workshop on computer simulation of atomic collision processes in solids.
Dates
27 Jan 1983.
Place
Tokyo (Japan).

INIS

Country of Publication
Japan
Country of Input or Organization
Japan
INIS RN
17010906
Subject category
S75: CONDENSED MATTER PHYSICS, SUPERCONDUCTIVITY AND SUPERFLUIDITY;
Resource subtype / Literary indicator
Conference
Descriptors DEI
ATOM COLLISIONS; ATOMIC DISPLACEMENTS; BINARY ENCOUNTER METHOD; CASCADE THEORY; COMPARATIVE EVALUATIONS; COMPUTERIZED SIMULATION; MONTE CARLO METHOD; PHYSICAL RADIATION EFFECTS; SOLIDS; SPUTTERING
Descriptors DEC
COLLISIONS; EVALUATION; RADIATION EFFECTS; SIMULATION