High-intensity implantation of ions of aluminium in the titan

Research output: Contribution to journalArticle

7 Citations (Scopus)

Abstract

The chemical composition, structural-phase state, mechanical, and tribological properties of titanium-surface layers modified during the high-intensity aluminium-ion implantation assisted by the ion-plasma vacuum-arc source 'Raduga-5' are investigated. The mode of such high-intensity ion implantation allows obtaining ion-doped surface layers of a titan containing the fine-dispersed intermetallide phases TiAl, Ti3Al, and solid solution of aluminium in a titanium with variable composition in depth. With increasing doze of an implantation from 2.2·1017 ion/cm2 up to 2.2·1018 ion/cm2, the growth of thickness ion-alloyed layer of a titanium (from 0.4 up to 2.6 microns), medium-sized grains of intermetallide phases (from 20 up to 70 nanometres), and their conglomerates (from 71 up to 584 nanometres) are observed. As shown, the implantation of aluminium ions into the titanium results in substantial increase of microhardness and wear-resistance of materials. The maximum microhardness is observed for the titanium specimen implanted by aluminium ions at a doze of irradiation of 2.2·1018 ion/cm2. The conclusion about influence of a structural-phase state of ion-alloyed layers of titanium on their mechanical and tribological properties is made.

Original languageEnglish
JournalMetallofizika i Noveishie Tekhnologii
Volume26
Issue number12
Publication statusPublished - Dec 2004

Fingerprint

Implantation
Titan
Titanium
Aluminum
Ion implantation
implantation
Ions
aluminum
titanium
Ion Implantation
Microhardness
ions
microhardness
ion implantation
surface layers
mechanical properties
Irradiation
Vacuum
Arc of a curve
Plasma

ASJC Scopus subject areas

  • Materials Science(all)
  • Electronic, Optical and Magnetic Materials
  • Metals and Alloys
  • Condensed Matter Physics

Cite this

@article{2a16a5b91550425491f81b37291aa3bc,
title = "High-intensity implantation of ions of aluminium in the titan",
abstract = "The chemical composition, structural-phase state, mechanical, and tribological properties of titanium-surface layers modified during the high-intensity aluminium-ion implantation assisted by the ion-plasma vacuum-arc source 'Raduga-5' are investigated. The mode of such high-intensity ion implantation allows obtaining ion-doped surface layers of a titan containing the fine-dispersed intermetallide phases TiAl, Ti3Al, and solid solution of aluminium in a titanium with variable composition in depth. With increasing doze of an implantation from 2.2·1017 ion/cm2 up to 2.2·1018 ion/cm2, the growth of thickness ion-alloyed layer of a titanium (from 0.4 up to 2.6 microns), medium-sized grains of intermetallide phases (from 20 up to 70 nanometres), and their conglomerates (from 71 up to 584 nanometres) are observed. As shown, the implantation of aluminium ions into the titanium results in substantial increase of microhardness and wear-resistance of materials. The maximum microhardness is observed for the titanium specimen implanted by aluminium ions at a doze of irradiation of 2.2·1018 ion/cm2. The conclusion about influence of a structural-phase state of ion-alloyed layers of titanium on their mechanical and tribological properties is made.",
author = "Kurzina, {I. A.} and Bozhko, {I. A.} and Kalashnikov, {Mark Petrovich} and Sivin, {Denis Olegovich} and Sharkeev, {Yu P.} and Kozlov, {Eh V.}",
year = "2004",
month = "12",
language = "English",
volume = "26",
journal = "Metallofizika i Noveishie Tekhnologii",
issn = "1024-1809",
publisher = "Natsional'na Akademiya Nauk Ukrainy",
number = "12",

}

TY - JOUR

T1 - High-intensity implantation of ions of aluminium in the titan

AU - Kurzina, I. A.

AU - Bozhko, I. A.

AU - Kalashnikov, Mark Petrovich

AU - Sivin, Denis Olegovich

AU - Sharkeev, Yu P.

AU - Kozlov, Eh V.

PY - 2004/12

Y1 - 2004/12

N2 - The chemical composition, structural-phase state, mechanical, and tribological properties of titanium-surface layers modified during the high-intensity aluminium-ion implantation assisted by the ion-plasma vacuum-arc source 'Raduga-5' are investigated. The mode of such high-intensity ion implantation allows obtaining ion-doped surface layers of a titan containing the fine-dispersed intermetallide phases TiAl, Ti3Al, and solid solution of aluminium in a titanium with variable composition in depth. With increasing doze of an implantation from 2.2·1017 ion/cm2 up to 2.2·1018 ion/cm2, the growth of thickness ion-alloyed layer of a titanium (from 0.4 up to 2.6 microns), medium-sized grains of intermetallide phases (from 20 up to 70 nanometres), and their conglomerates (from 71 up to 584 nanometres) are observed. As shown, the implantation of aluminium ions into the titanium results in substantial increase of microhardness and wear-resistance of materials. The maximum microhardness is observed for the titanium specimen implanted by aluminium ions at a doze of irradiation of 2.2·1018 ion/cm2. The conclusion about influence of a structural-phase state of ion-alloyed layers of titanium on their mechanical and tribological properties is made.

AB - The chemical composition, structural-phase state, mechanical, and tribological properties of titanium-surface layers modified during the high-intensity aluminium-ion implantation assisted by the ion-plasma vacuum-arc source 'Raduga-5' are investigated. The mode of such high-intensity ion implantation allows obtaining ion-doped surface layers of a titan containing the fine-dispersed intermetallide phases TiAl, Ti3Al, and solid solution of aluminium in a titanium with variable composition in depth. With increasing doze of an implantation from 2.2·1017 ion/cm2 up to 2.2·1018 ion/cm2, the growth of thickness ion-alloyed layer of a titanium (from 0.4 up to 2.6 microns), medium-sized grains of intermetallide phases (from 20 up to 70 nanometres), and their conglomerates (from 71 up to 584 nanometres) are observed. As shown, the implantation of aluminium ions into the titanium results in substantial increase of microhardness and wear-resistance of materials. The maximum microhardness is observed for the titanium specimen implanted by aluminium ions at a doze of irradiation of 2.2·1018 ion/cm2. The conclusion about influence of a structural-phase state of ion-alloyed layers of titanium on their mechanical and tribological properties is made.

UR - http://www.scopus.com/inward/record.url?scp=14844309277&partnerID=8YFLogxK

UR - http://www.scopus.com/inward/citedby.url?scp=14844309277&partnerID=8YFLogxK

M3 - Article

AN - SCOPUS:14844309277

VL - 26

JO - Metallofizika i Noveishie Tekhnologii

JF - Metallofizika i Noveishie Tekhnologii

SN - 1024-1809

IS - 12

ER -