Specifications

Number of references: 11
Main heading: Computer simulation
Controlled terms: Amorphous alloys - Atomization - Chromate coatings - Flame
spraying - Plasma jets - Plasma spraying - Spray nozzles
Uncontrolled terms: Amorphous coating - Atomization mechanism - Atomization
process - Electric voltage - Median diameters - Process parameters - Spray coating
process - Spraying distance
Classification code: 817.2 Polymer Applications - 813.2 Coating Materials - 802.3
Chemical Operations - 932.3 Plasma Physics - 723.5 Computer Applications - 631.1 Fluid
Flow, General - 531 Metallurgy and Metallography - 631.1.2 Gas Dynamics
Database: Compendex
Compilation and indexing terms, © 2013 Elsevier Inc.
3.
Accession number: 20132616454053
Title: Mechanical properties of composite ceramic coatings plasma-sprayed on
magnesium alloy
Authors: Feng, La-Jun1 ; Lei, A-Li1 ; Wang, Guan-Chong1 ; Xu, Yong-Zheng1 ; Zhang, Jing1/
冯拉俊;雷阿利;王官充;许永征;张静
Author affiliation:
1 School of Materials Science and Engineering, Xi'an University of Technology, Xi'an 710048,
China
Corresponding author: Feng, L.-J.
Source title: Gongneng Cailiao/Journal of Functional Materials
Abbreviated source title: Gongneng Cailiao
Volume: 44
Issue: 9
Issue date: May 15, 2013
Publication year: 2013
Pages: 1298-1300+1304
Language: Chinese
ISSN: 10019731
CODEN: GOCAEA
Document type: Journal article (JA)
Publisher: Journal of Functional Materials, P.O. Box 1512, Chongqing, 630700, China
Abstract: Aiming at the reality of aluminium piston surface easy scratches, in this paper the
composite ceramic coating was deposited on XGFH-3 aluminium substrate by plasma spraying
with composite ceramic powder prepared by mechanical ball milling and PVA granulating
technology. The bond strength between the coating and substrate, the coating microhardness
and the wear resistance for coating and substrate were measured by using oxygen to feed
powder without transition layer. The results showed that the maximum bond strength, 19.07
MPa, for the coating sprayed with powder milled for 16 h were reached. The maximum
microhardness of the coating, HV0.11105, was realized, which was 16 times harder than the
substrate. The wear mass per unit area of the substrate was about 8.5 times larger than the