DocumentCode
84568
Title
Plasma Metallization Coating and Its Adhesion to Microwave Transistor Substrate—Part 1: Methods of Experimental Research
Author
Vysikaylo, Philipp I. ; Mitin, Valeriy S. ; Mitin, Aleksey V. ; Krasnobaev, Nikolay N. ; Belyaev, Victor V.
Author_Institution
Plasma Chem. Lab., Moscow Radiotechnical Inst., Moscow, Russia
Volume
43
Issue
4
fYear
2015
fDate
Apr-15
Firstpage
1088
Lastpage
1092
Abstract
A previously proposed mechanism of adhesion of a plasma metal coating to a ceramic substrate is investigated experimentally. This adhesion mechanism is based on the increase in the concentration of structural defects (vacancies) and electron exchange interaction of a metal-oxide beryllium pair during the plasma thermal activation of the process. Given the brazing of ceramic products with hard solders in hydrogen, the coating composition for metallization is determined. The optimal temperature of reactive plasma metals coating for strong adhesion to the ceramic substrate is found. Methods to improve the technology of plasma vacuum metallization using ion-plasma magnetron sputtering and ion implantation are proposed.
Keywords
adhesion; brazing; coatings; exchange interactions (electron); ion implantation; metallisation; microwave transistors; plasma materials processing; sputter deposition; vacancies (crystal); adhesion; brazing; ceramic substrate; electron exchange interaction; hard solders; hydrogen; ion implantation; ion-plasma magnetron sputtering; metal-oxide beryllium pair; microwave transistor; plasma metal coating; plasma metallization coating; plasma thermal activation; structural defects; vacancies; Adhesives; Ceramics; Coatings; Metals; Plasma temperature; Substrates; Diffusion of vacancies; high-power microwave devices; mechanism and kinetics of formation of adhesion; plasma metal coating; power layer; power layer.;
fLanguage
English
Journal_Title
Plasma Science, IEEE Transactions on
Publisher
ieee
ISSN
0093-3813
Type
jour
DOI
10.1109/TPS.2015.2404833
Filename
7052363
Link To Document