The regularities of solid surface erosion and coating deposition using high-power pulsed beams of charged particles

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4 Citations (Scopus)

Abstract

This work presents a mathematical model of solid surface erosion. In this model, near-surface layers are heated to a very high temperature and can undergo phase transformations under irradiation by pulsed beams of charged particles with an initial energy of 10-1000 keV and a power density of 10 6-1010 W/cm2. The intensity and energy efficiency of substance removal obtained from the model have been analyzed. The method of calculating a coating deposition rate using similar beams is described, which enables prediction of the productivity and energy efficiency of the technology. The calculation data of some deposition parameters that characterize the abilities of modern pulsed charged-particle accelerators are presented.

Original languageEnglish
Pages (from-to)34-39
Number of pages6
JournalNuclear Instruments and Methods in Physics Research, Section B: Beam Interactions with Materials and Atoms
Volume292
DOIs
Publication statusPublished - 1 Dec 2012

Fingerprint

Charged particles
regularity
solid surfaces
erosion
Energy efficiency
Erosion
charged particles
coatings
Coatings
Deposition rates
Particle accelerators
particle accelerators
Productivity
Phase transitions
Irradiation
Mathematical models
productivity
phase transformations
energy
radiant flux density

Keywords

  • Charged-particle pulsed beams
  • Coating deposition
  • Evaporation
  • Surface erosion

ASJC Scopus subject areas

  • Instrumentation
  • Nuclear and High Energy Physics

Cite this

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abstract = "This work presents a mathematical model of solid surface erosion. In this model, near-surface layers are heated to a very high temperature and can undergo phase transformations under irradiation by pulsed beams of charged particles with an initial energy of 10-1000 keV and a power density of 10 6-1010 W/cm2. The intensity and energy efficiency of substance removal obtained from the model have been analyzed. The method of calculating a coating deposition rate using similar beams is described, which enables prediction of the productivity and energy efficiency of the technology. The calculation data of some deposition parameters that characterize the abilities of modern pulsed charged-particle accelerators are presented.",
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T1 - The regularities of solid surface erosion and coating deposition using high-power pulsed beams of charged particles

AU - Bleykher, G. A.

AU - Krivobokov, V. P.

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N2 - This work presents a mathematical model of solid surface erosion. In this model, near-surface layers are heated to a very high temperature and can undergo phase transformations under irradiation by pulsed beams of charged particles with an initial energy of 10-1000 keV and a power density of 10 6-1010 W/cm2. The intensity and energy efficiency of substance removal obtained from the model have been analyzed. The method of calculating a coating deposition rate using similar beams is described, which enables prediction of the productivity and energy efficiency of the technology. The calculation data of some deposition parameters that characterize the abilities of modern pulsed charged-particle accelerators are presented.

AB - This work presents a mathematical model of solid surface erosion. In this model, near-surface layers are heated to a very high temperature and can undergo phase transformations under irradiation by pulsed beams of charged particles with an initial energy of 10-1000 keV and a power density of 10 6-1010 W/cm2. The intensity and energy efficiency of substance removal obtained from the model have been analyzed. The method of calculating a coating deposition rate using similar beams is described, which enables prediction of the productivity and energy efficiency of the technology. The calculation data of some deposition parameters that characterize the abilities of modern pulsed charged-particle accelerators are presented.

KW - Charged-particle pulsed beams

KW - Coating deposition

KW - Evaporation

KW - Surface erosion

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JO - Nuclear Instruments and Methods in Physics Research, Section B: Beam Interactions with Materials and Atoms

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