PS-PVD deposition of thermal barrier coatings

In this study, the influence of the deposition parameters on the coating structure during the ‘quasi-PVD’ process was investigated. This type of coating could be deposited at powder feed rates between 10 and 20g/min using He/Ar plasma gasses. The microstructure of the ceramic coating obtained using...

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Veröffentlicht in:Surface & coatings technology 2013-12, Vol.237, p.51-55
Hauptverfasser: Goral, Marek, Kotowski, Slawomir, Nowotnik, Andrzej, Pytel, Maciej, Drajewicz, Marcin, Sieniawski, Jan
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container_end_page 55
container_issue
container_start_page 51
container_title Surface & coatings technology
container_volume 237
creator Goral, Marek
Kotowski, Slawomir
Nowotnik, Andrzej
Pytel, Maciej
Drajewicz, Marcin
Sieniawski, Jan
description In this study, the influence of the deposition parameters on the coating structure during the ‘quasi-PVD’ process was investigated. This type of coating could be deposited at powder feed rates between 10 and 20g/min using He/Ar plasma gasses. The microstructure of the ceramic coating obtained using these parameters is unique because the evaporation of the ceramic powder was not complete. The deposition was conducted by the LPPS-Hybrid system produced by Sulzer Metco. Rene 80 nickel superalloy was used as a base material. A Zr-modified aluminide coating deposited by the CVD (Chemical Deposition) method, and a MeCrAlY coating deposited by the APS (Air Plasma Spraying) method were used as bond coats. Metco 6700 yttria-stabilized zirconia powder was used as a coating material. An increase in the coating thickness was triggered by increasing the powder feed rate. The pressure inside the working chamber exercised a strong influence on the structure and thickness of the coatings. In coatings deposited under a pressure of 200Pa, unevaporated powder particles were observed along with a significantly lower thickness. The same effect was rendered by decreasing the power current of the plasma gun to 1800A. The PS-PVD method provides an alternative process to APS and EB-PVD (Electron Beam Physical Vapor Deposition) technologies. •The PS-PVD process to be a promising technology for deposition of TBC•The microstructure called “quasi-PVD” was obtained.•PS-PVD allows producing columnar crystal structure.
doi_str_mv 10.1016/j.surfcoat.2013.09.028
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source Elsevier ScienceDirect Journals
subjects Applied sciences
Chemical vapor deposition
Coatings
Cross-disciplinary physics: materials science
rheology
Deposition
Electron-beam physical vapor deposition
Exact sciences and technology
Feed rate
Low pressure plasma spraying
LPPS hybrid
Materials science
Metals. Metallurgy
Nickel base alloys
Nonmetallic coatings
Physics
Plasma spray physical vapor deposition
Production techniques
PS-PVD
Superalloys
Surface treatment
Surface treatments
TBC
Thermal barrier coatings
Yttria stabilized zirconia
Zirconium
title PS-PVD deposition of thermal barrier coatings
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